Drones

New footage of Australia’s Ghost Shark extra-large autonomous underwater vehicle (XL-AUV) provides the first look at how the vehicle launches aerial drones, while also revealing a pair of deployable masts not previously seen on the platform. The video comes soon after we got a glimpse of some of the payloads that the Royal Australian Navy plans to integrate on the new uncrewed submarine, as you can read more about in our coverage here.

Published by manufacturer Anduril, the footage shows a Ghost Shark surfacing before doors on the top of its hull slide open. A launcher consisting of 12 angled tubes then emerges from a drone sub. Another launcher is seen in the other upper payload bay, but is not raised in the video. While it appears to be of the same type, the second launcher could also have a different arrangement of tubes.

The footage subsequently cuts to an ALTIUS-type drone being launched from one of the tubes, with Ghost Shark itself remaining surfaced.

The sequence provides a much more concrete look at the aerial-drone deployment concept — or one of them — than the photographs released previously, which offered the first public view inside Ghost Shark’s side payload bay.

The Australian government has said the vehicle is being developed for missions including persistent intelligence, surveillance, reconnaissance (ISR) and strike, but the precise configuration and operational capabilities of its weapons and how they are launched had not previously been disclosed.

The video does not identify which ALTIUS variant is being launched. However, Ghost Shark has previously been displayed at the Altus factory in Australia alongside derivatives of the ALTIUS-600 family. This includes the ALTIUS-600 for ISR, as well as the ALTIUS-600M, which is designed for strike missions. You can read more about this family of drones here. As we noted before, unarmed variants of the ALTIUS-600 are designed to be optionally expendable, and can be reused, although in many scenarios that isn’t possible. In terms of capabilities, the ALTIUS-600 has a maximum range of around 275 miles and can remain airborne for at least four hours, according to Anduril.

ALTIUS-600M Loitering Munition

Ghost Shark can clearly deploy a substantial number of aerial drones — two dozen in this case – in a single sortie, enabling swarms to be launched far from an adversary’s coastline. Depending on the drones carried and how they are employed, such a swarm could provide broad-area surveillance, wreak havoc on enemy air defenses via electronic warfare, or attack targets.

The concept could also have value below the threshold of open conflict. A mass launch of relatively inexpensive drones could be used to probe or stimulate an adversary’s air defenses, prompting them to reveal their locations, signatures and operating procedures for collection by other intelligence assets or even some of the drones themselves. There is a precedent for exactly this going back to the early Cold War years, which you can read all about here.

Ghost Shark could carry these capabilities deep into contested waters clandestinely without putting a crew at risk, unleashing their payload even at standoff distances or right next to the shore to give the drones maximum penetration and loitering time over target, depend on the risk profile.

At the same time, while the 12-tube launchers fit neatly into Ghost Shark’s hull architecture, the modular nature of the design means that the same space can accommodate many other payloads, which might include alternative types of aerial drones. This could be fewer larger, more capable types, or far more plentiful smaller, less capable ones.

The other notable development in the video is the appearance of two deployable masts. Their presence is particularly interesting given Anduril’s emphasis on designing uncrewed underwater vehicles without the kinds of protruding mast arrangements associated with traditional submarine designs. On UUVs, masts like these are generally used to support sensors, communications, and propulsion systems.

“We don’t have big masts running down the backbone of our vehicle that a lot of other designs do that then preclude the ability for the payloads to come out in different directions… of the payload module itself,” Dr. Shane Arnott, Senior Vice President for Engineering at Anduril and the company’s maritime lead, told TWZ back in 2024.

“So we have… in effect, unlimited flexibility in this design, just the way that we’ve configured the vehicle and the payload bay itself could be almost anything within a size configuration that you can dream up,” Arnott added. “We haven’t encountered a crazy idea yet from a customer that … we can’t fit.”

The larger mast that lies flat is actually a fairly traditional one for large UUVs. It lies along the centerline of the hull when stowed, between the upper payload bays. It then deploys upward in an arm-like motion and carries an antenna. The smaller mast is located farther aft and rises vertically from its own housing. Potentially, the tall mast supports a line-of-sight datalink to the drones, while the other being a satcom array, such as one connected to Starlink/Starshield, sends drone feed to controllers anywhere in the world. It’s also worth noting that Ghost Shark could just launch the drones and send them on their missions autonomously, without needing to stay surfaced at all. Other arrangements could exist, as well, such as Ghost Shark launching a dozen drones and one larger one capable of carrying its own satcom terminal. This would allow direct control of the drones by operators anywhere in the world without Ghost Shark remaining present near the surface.

Ghost Shark also has a lower-profile swept-back sail on top of its nose section, not visible in the video. Overall, the vessel would retain a very small signature above the waterline while connected to the drones, making it hard to detect by radar and electro-optical imaging systems.

The new video follows the recent disclosure of three payload concepts for the Royal Australian Navy’s Ghost Shark: the deployment of up to 12 sea mines in a mission, the placement of supply caches on the seabed, and the launch of aerial drones. Those capabilities expand the vehicle beyond conventional underwater surveillance into a broader range of undersea warfare missions.

The mine-delivery option could support operations in strategically important maritime areas, while seabed caches could provide a means of positioning equipment and supplies for later retrieval. The aerial-drone capability, as seen in the new video, would allow Ghost Shark to extend surveillance beyond the reach of its own sensors or potentially deliver strike effects without exposing crewed platforms to the same risks. Having 12 ALTIUS drones ready to launch (and potentially the same number in the adjacent upper payload bay) would allow multiple missions to be undertaken.

The modular design is central to Ghost Shark. As we have discussed, the payload section can be configured using different hull sections and mission-specific systems, allowing the same underlying vehicle design to accommodate different requirements. The newly revealed launcher provides a first look at how at least one of those payload concepts may be implemented in practice.

Australia has committed substantial resources to autonomous and uncrewed undersea warfare capabilities, with a planned fleet of Australian-designed and built Ghost Shark vehicles serving alongside the Speartooth large uncrewed underwater vehicle (LUUV) and the BlueBottle uncrewed surface vessel (USV). The Ghost Shark program is also part of the broader AUKUS effort to develop advanced maritime technologies alongside the United Kingdom and the United States.

The new footage provides a clearer picture of the practical design choices behind that effort. Most notably, how the underwater vehicle can operationalize its aerial drone launching capability and the quantity of those systems it could potentially deploy very quickly before slipping back below the waves.

Contact the author: thomas@thewarzone.com

The Ukrainian Armed Forces say they have carried out the world’s first frontline evacuation of a wounded soldier by aerial drone. The soldier, from the 30th Mechanized Brigade, is said to have been recovered successfully and is undergoing treatment and rehabilitation.

“This is a historic event, at least for our unit for sure,” said “Napalm,” a squad commander and programmer with the 92nd Assault Brigade’s uncrewed ground vehicle (UGV) company. The precise date and location of the operation have not been disclosed, and the claim of a global first has not been independently verified. However, a video of the event has been published by the 92nd, which you can watch below:

ТАКОГО ЩЕ НІХТО НЕ РОБИВ! В УКРАЇНІ ПРОВЕЛИ ПЕРШУ В СВІТІ ПОВІТРЯНУ ЕВАКУАЦІЮ ЛЮДИНИ З ЛІНІЇ ФРОНТУ

At this point, it should be noted that the footage has not been independently verified and could depict a staged demonstration rather than an actual combat evacuation. It should, at least, be treated with a degree of caution.

According to accompanying reports, the infantryman was wounded while holding his position. Mines and intense Russian drone activity prevented a conventional ground evacuation, prompting the 92nd’s specialists to attempt an aerial extraction. The video shows the soldier clipping himself to the underside of the drone via a harness before being flown to safety. The extemporized nature of the platform is underscored by the fact that, while in the air, the soldier dangles below its rigid landing legs.

The aircraft was a heavy hexacopter manufactured by Ukrainian company Gurzuf Defense, which provided it free of charge. A UAV operator from the 30th Mechanized Brigade piloted the drone. Throughout the recovery, the soldier remained in contact with the drone operator.

The operation involved the 92nd, 30th and 14th Mechanized Brigades, the 10th Army Corps and Gurzuf Defense.

Ukraine increasingly uses uncrewed ground vehicles to deliver supplies and evacuate casualties from exposed positions. According to Euromaidan Press, Ukrainian UGVs conducted approximately 112,000 logistics and evacuation missions between January and August 2026.

However, ground robots can struggle with mines, mud, and cratered terrain, while remaining vulnerable to drones and artillery. These obstacles make it especially difficult to conduct UGV operations in the battlefield’s “kill zone,” which can extend six to nine miles or more from the front line. You can read an in-depth account of Ukrainian UGV efforts in this previous story.

A video showing a Ukrainian UGV in action in the Donetsk region:

Ground Drones Evacuate Wounded Soldiers Under Fire In Ukraine | Ukraine Front Line Update

Aerial platforms are able to reach casualties in places where ground vehicles cannot safely travel, and can get there far quicker, without having to stick to specific routes.

The 92nd has not disclosed the evacuation distance or flight duration of the mission. If, as reported, the drone used was an Audag-6 model, this is stated to be capable of carrying a 200-pound payload over a distance of up to 15 miles.

Meanwhile, the recovery points to a growing trend in the Ukrainian Armed Forces.

Only days before the story of the evacuation broke, it emerged that Ukraine is also now testing the StarGate, a purpose-built aerial medical evacuation drone — also of the heavy hexacopter type — developed by the SkyFall company. This is a rather more tailored solution to the problem, with a covered, medical-grade stretcher slung below the drone. It has a reported payload capacity of around 330 pounds, uses AI-assisted navigation, and can also deploy nets against hostile drones attempting to intercept it.

Exclusive look at ‘StarGate,’ Ukraine’s drone that can evacuate wounded soldiers

The 92nd’s operation used a heavy-lift hexacopter adapted for an ad hoc casualty transport, rather than a more bespoke design. This means the soldier had to be adequately trained on how to strap in, and also had to be in a condition that they could actually perform this procedure. This would also be the case even if other soldiers were able to assist them in strapping in.

While these kinds of solutions may be new to the battlefield in Ukraine, using uncrewed aerial systems for personnel recovery and medical evacuation is far from new.

Back in 2016, the Army completed a demonstration of the Lockheed Martin K-Max helicopter in a casualty evacuation role. The K-Max can operate with and without a pilot and was used as a drone by the Marine Corps to deliver cargo in Afghanistan.

“Unmanned and autonomous platforms have the potential to completely rewrite the medical doctrine,” Army Col. Daniel Kral, head of the Army’s Advanced Technology Research Center (TATRC), explained during a conference at Fort Detrick in Maryland in 2017.

In 2019, TWZ reported on U.S. Army efforts to explore how uncrewed craft might speed up the casualty evacuation process. This work included evaluation of the Dragonfly Pictures, Inc. (DPI) DP-14 Hawk, a small, tandem-rotor drone with a 400-pound cargo capacity.

The emergence of autonomous air vehicles, or uncrewed ‘flying taxis,’ with short or vertical take-off and landing capabilities in the urban air mobility sector has also generated military interest. The U.S. Air Force Research Laboratory, for example, has conducted studies into how craft such as these could be adapted for combat search and rescue, with the idea that they would be airdropped to recover a fighter pilot shot down while operating over hostile territory.

Closer to the Ukrainian hexacopter concept is the Flowcopter FC-100, a heavy-lift quadcopter drone that the U.S. Army tested in a medical evacuation capacity in Poland during the large-scale Saber Strike exercise earlier this year. Carrying a 220-pound payload, the drone has a range of more than 60 miles.

All of these concepts aim to address the inherent vulnerability of larger personnel recovery platforms in more contested environments.

In their favor, they offer the potential to rescue troops from more precarious situations, with the smaller drones touching down in relatively tight areas in mountainous, forested, or jungle environments. Autonomous navigation systems can guide the drones through smoke, dust, or bad weather, too.

On the other hand, these small craft have no space for a medic, pararescuemen, or other additional personnel. Bearing in mind their limited range and lower speeds, they also need to be in the right location to respond to emergencies as and when they occur.

For the Ukrainian Armed Forces, aerial medical evacuation drones are being rapidly developed and now fielded to help address another problem: the vulnerability of UGVs in areas of the battlefield that have long become far too hazardous for crewed medevac platforms to operate.

By now, both sides in the Ukraine war are relying heavily upon small, autonomous uncrewed aircraft to perform a wide variety of resupply, surveillance, communications, and strike roles on and around the front lines. With that in mind, the adaptation of these kinds of vehicles for casualty evacuation and personnel recovery missions is the next logical step.

Contact the author: thomas@thewarzone.com

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.

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.

Shahed 136 drone Great Prophet 17 drill

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

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.

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 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.

Inside Sikorsky’s “Black Hawk 2070” Plan With Drones, Autonomy, And The Pilotless U-Hawk.

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.