A U.S. Navy F/A-18F Super Hornet assigned to Air Test and Evaluation Squadron 31 (VX-31) has been spotted carrying both the AIM-174B and AIM-260 Joint Advanced Tactical Missile (JATM) during a flight over Ridgecrest, California. This represents the first known publicly documented instance of these two advanced air-to-air weapons appearing on the same aircraft.
The aircraft was photographed on October 14 by aviation photographer @photosxlyss2, who shared the result with TWZ. The same Super Hornet was also carrying an IRST21 infrared search-and-track pod on its centerline station.
A close-up of the AIM-174B, AIM-260 Joint Advanced Tactical Missile, and IRST21 infrared search-and-track pod under an F/A-18F Super Hornet assigned to Air Test and Evaluation Squadron 31 (VX-31) during a flight over Ridgecrest, California. @photosxlyss2_ RY
Two critical elements of the modernization of the U.S. military’s air-to-air missile arsenal, the AIM-174B and AIM-260 provide complementary capabilities, addressing different aspects of the Navy’s evolving air-combat requirements.
Based on the SM-6 missile family, the AIM-174B provides the Navy with an extended-range air-to-air weapon. Its size and reach make it particularly relevant to engagements against high-value airborne assets, including aerial refueling tankers and airborne early warning and control aircraft.
A U.S. Navy F/A-18F Super Hornet test jet with four AIM-174B missiles under its wings. point_mugu_skies
Threatening these support platforms at extended distances complicates an adversary’s ability to sustain fighter operations, maintain airborne surveillance, and coordinate engagements across domains. Such targets are especially important in the Indo-Pacific, where distances are vast and combat aircraft may depend heavily on tanker support to reach and remain on station over contested areas.
The range of this missile is classified but should be far in excess of that of the AIM-120D AMRAAM, probably in the hundreds of miles, as discussed in the video below.
The AIM-174B has already appeared in several major exercises, including RIMPAC 2024 and Northern Edge 2025. Following developmental trials at RIMPAC, the weapon entered Live Fire Test and Evaluation in 2025. Some examples of the missile have since reached forward-deployed Navy squadrons in Japan.
The AIM-260, meanwhile, is being developed to provide a next-generation beyond-visual-range air-to-air capability. It is intended to address increasingly sophisticated aerial threats and improve upon the capabilities of the very widely used AIM-120 Advanced Medium Range Air-to-Air Missile (AMRAAM) family.
It was another F/A-18F from VX-31 on which the AIM-260 was first publicly seen when departing Eglin Air Force Base in Florida in May of this year. The same type of weapon has since also appeared on a Royal Australian Air Force F/A-18F, as you can read about here.
An F/A-18F from VX-31 carrying the AIM-260. Jonathan Tweedy/ @flightline_visuals
The AIM-260’s precise specifications remain classified, but it is designed to deliver significantly greater range than the AIM-120 AMRAAM while maintaining a broadly similar form factor. Its compact design is important, as the missile is intended for both external carriage and internal carriage aboard aircraft such as the F-22 Raptor and F-35.
A rendering depicting an F-22 Raptor firing an AIM-260 JATM. U.S. Air Force
The AIM-260 is being developed to counter the growing long-range air-to-air threat posed by China’s PL-15 and other advanced missiles. Although no official range figures have been disclosed, previous reporting has indicated a target range of at least 120 miles, with the potential to reach considerably farther.
Inert PL-15s in the weapons bay of a Chinese J-20 fighter. via Chinese internet
It is unclear when the first operational AIM-260s may begin entering the U.S. inventory. Together, however, the two weapons give the Super Hornet access to a broader range of engagement options, depending not only on the range of the target, but also on the nature of the engagement and overall tactical situation.
The presence of an IRST21 pod is also noteworthy. The infrared search-and-track system passively detects and tracks airborne targets rather than relying exclusively on radar emissions.
Passive sensing is especially valuable in environments where electromagnetic emissions must be managed carefully. Although an IRST system does not automatically provide all the information needed to support a long-range missile engagement, it can contribute to a broader sensor picture and potentially help crews detect targets without immediately revealing their own position through radar emissions.
After a long and troubled development, a full-rate production contract for Block II IRST21 sensors to go into pods for U.S. Navy and U.S. Air National Guard fighters was awarded this time last year, as you can read about here.
An IRST21 built into the centerline tank on a Super Hornet during early tests. U.S. Navy
The appearance of both missiles on a VX-31 Super Hornet is a notable development in the Navy’s ongoing testing of advanced air-combat capabilities. VX-31, based at the sprawling Naval Air Weapons Station China Lake in California, conducts test and evaluation activities involving naval aviation weapons and systems.
On this occasion, the jet is carrying inert missiles (denoted by their blue bands) in a captive-carry configuration. The flight may have been part of ongoing weapons-integration testing, handling and compatibility evaluations, or another test activity.
At the very least, the configuration offers an intriguing glimpse into how a Navy Super Hornet might go into battle in a future high-end air combat scenario. Pairing the extended-range AIM-174B with the next-generation AIM-260 would provide a powerful combination.
Added to those two will be the AIM-424 Malice, an all-new, very long-range air-to-air missile, the existence of which was only disclosed in August of this year. This is reportedly a two-stage design, which should result in extreme range — said to be in excess of 250 nautical miles — and very high speed. It isn’t known where Malice slots in next to the AIM-174B, although the newer missile is purpose-designed for air launch, unlike the Standard-derived weapon.
Four AIM-424 Long Range Air-to-Air Missiles (LRAAM) are loaded on an F/A-18E Super Hornet for a test event. U.S. Navy U.S. Navy
As the service prepares for increasingly demanding scenarios in the Indo-Pacific, the new photo underscores the fact that the ability to threaten a wider range of targets at greater distances is one of the key considerations in the evolution of the Navy’s carrier-based fighter force.
The U.S. Air Force says any decision on whether or not to acquire new production F-16 Viper fighters is likely a year or more away. The service’s top officer in charge of force structure planning has also now raised the prospect of using a “spectrum of capability” to eventually supplant aging older-model F-16s. All of this comes as the Air Force has laid out a new vision to have 1,509 combat-coded fighters in inventory, hundreds more than it has now, by 2035, amid questions about whether industry and budgets can keep up.
Inside Defense and Air & Space Forces Magazine were among the first to report on the Air Force’s latest long-term fighter force structure plan late yesterday. This followed a roundtable with Lt. Gen. David Tabor, the service’s Deputy Chief of Staff for Plans and Programs. At the time of writing, an unclassified copy of the report, which was submitted to Congress last week, has not been released publicly. TWZ has reached out for more information.
Air Force Lt. Gen. David Tabor, seen here testifying before the Senate Armed Services Committee in 2024. USAF
Tabor said yesterday that the target fleet of 1,509 combat-coded fighters by 2035 would be approximately 40 percent F-35s, 40 percent F-15s (inclusive of F-15E Strike Eagles and F-15EX Eagle IIs) and F-16s, and 20 percent F-22 Raptors and F-47s, according to Air & Space Forces Magazine. As an aside, the final expected F-47 fleet size remains unclear, though the Air Force continues to say it plans to acquire at least enough of those jets to replace its 185 F-22s on a one-for-one basis.
The current breakdown of the service’s fighter force structure is 45 percent F-16s, 30 percent F-35s, 15 percent F-15s, and 10 percent F-22s. Last year’s long-term fighter force structure report said the service was aiming for an eventual inventory of 1,558 combat-coded fighters and hoped to hit a milestone of 1,369 aircraft by Fiscal Year 2030. As of the start of Fiscal Year 2026, the Air Force had 1,168 combat-coded fighters, not including 103 A-10 Warthog ground attack jets, which have been part of this force structure planning in the past. The plan now is for the last of the A-10s to be retired by 2030. The new 2035 figure also does not include the hundreds of Collaborative Combat Aircraft (CCA) drones the service wants to have acquired by that time, something we will come back to later on.
The US Air Force included these graphs showing projected fluctuations in fighter inventories in its annual force structure report last year. Not that the combat-coded tally for Fiscal Year 2030 shown here is lower (1,304) than the one the service said it was aiming for (1,369) at the time. The reason for that discrepancy is unclear. USAF
Currently, the Air Force expects fighter fleet expansion to be driven by the acquisition of new F-35As, F-15EXs, and F-47s. This was also the case when last year’s fighter force structure report was released. The possibility of the Air Force also acquiring new-production F-16s has come up several times in recent years. Most recently, there were several reports last month that prime contractor Lockheed Martin had made a new pitch to the service for a version of the latest Block 70 version of the fighter, tentatively dubbed the F-16G. New Block 70 and Block 72 F-16s, which differ in what engine they use, are being actively produced at Lockheed Martin’s plant in Greenville, South Carolina. At that time, TWZ did a deep dive into the benefits that this could offer the Air Force.
The new-production F-16D seen here, destined for Morocco, became the first Block 72 version to fly just earlier this month. Lockheed Martin
“There is a spectrum of capability that we might want to replace the F-16s with,” Lt. Gen. Tabor said amid a discussion about the prospect of acquiring new Vipers at the roundtable yesterday, per Air & Space Forces Magazine. “It’s not urgent, frankly. What we don’t want to get to is a point where it is urgent, and we haven’t done the homework and decided ‘hey, this is really the right place to be.’ We do have time to churn through that and make sure that we have a good option going forward.”
“We’re not in a position where that decision has to be made immediately,” Tabor added, while acknowledging that “we are very conscious” that older-model F-16s are set to begin reaching the end of their lifespans in the 2030s. He also said any such planning was unlikely to be part of the process of developing the service’s Fiscal Year 2028 budget proposal, which will be released sometime early next year.
The Air Force is “in the initial phases of analyzing options for the next Future Years Defense Program,” a spokesperson for the service had told us last month without specifically mentioning any particular type of aircraft. “At this stage, we have neither defined the precise mission requirements nor the spectrum of options that could fill it.”
When it comes to the current F-16 fleet, the Air Force had 774 Vipers in inventory at the start of Fiscal Year 2026 and expected that number to drop to 768, according to past budget documents. This includes a mixture of subvariants, and not all of them are assigned combat-coded units. The Air Force has been substantially upgrading at least a portion of its existing F-16s, including with the addition of new active electronically scanned array (AESA) radars and electronic warfare suites, to ensure their operational relevance for years to come.
A new AN/APG-83 Scalable Agile Beam Radar (SABR), an active electronically scanned array type, seen being integrated onto a US Air Force F-16. USAF
The Air Force has also already been taking newer F-16s from squadrons transitioning to the F-35 and using them to replace older Vipers in other units. Last year’s fighter force structure report explicitly highlighted plans to supplant Block 30 F-16s in five Air National Guard formations – three combat-coded squadrons and two training units – with Block 40 and 50 types in this way.
“A new F-16 offers a fresh and highly mature airframe — one with a full service-life ahead of it, on the order of 12,000 flight hours without the need for structural upgrades — double that of the original F-16. This is compared to existing F-16s in the inventory with the decades of wear and fatigue already accumulated on them, with structural upgrades keeping them in the air. That difference in remaining structural life is arguably the single biggest advantage a new-build aircraft has compared with extending an existing one.”
“Dumping more money into existing F-16s is becoming questionable. Service life extensions and technical upgrades can only go so far and supporting these jets is becoming harder as parts dry up and suppliers who made them are long gone. A new airframe would give the Guard many decades of highly efficient service and the piece of mind for future force planning that goes with it.”
…
“The new [F-16G] proposal would let some Guard and Reserve units swap their F-16s for vastly improved F-16s — the same logic that drove the F-15EX buy — while also keeping the Greenville line hot, which is a significant benefit in its own right. And it accomplishes both in the most efficient way possible: not just in acquisition cost, but in sustainment cost, which is really the more problematic burden of the two. In the end, this points to another glaring reality check for the all-stealth-force concept, a vision the Air Force has effectively already abandoned.”
A row of Texas Air National Guard F-16s. USAF
“The Air Force has spent years describing the F-35 as the replacement for its F-16 fleet, yet it now has to contend with aging F-16s, delayed or constrained fighter production, a larger stated requirement for total fighter capacity, and the lengthy transition toward the F-47 and uncrewed combat aircraft. In that environment, a new-build F-16 provides an option that sits between extending legacy aircraft and buying the most sophisticated — and expensive — fighters available.”
You can read our full prior deep analysis on this topic here.
Lt. Gen. Tabor acknowledged many of these exact same points at the roundtable yesterday. He notably described acquiring new F-16s as “maybe the lazy” option, but also one that would benefit from “practically a ready-made aircraft” that is in production now, according to Air & Space Forces Magazine.
“The question is, can industry produce at those levels?” he also said, speaking more generally. “They’ve assured us that they can, and we believe them, but we also actually need to see it manifest.”
In the context of acquiring new F-16s, especially, it is important to note here that Lockheed Martin order books are very full already as a result of demand for these fighters from U.S. allies and partners. The company’s capacity, at least at present, to add a substantial new Air Force acquisition program on top of that is a real question. This, in some ways, mirrors questions that surround Boeing efforts to meet surging Air Force demand for F-15EXs.
A new F-16 being built at Lockheed Martin’s Greenville plant. Lockheed Martin
On top of all this, the Air Force’s still-evolving CCA plans remain something of a wildcard in these discussions. The Air Force has ordered General Atomics FQ-42 Vengeance and Anduril’s FQ-44 Fury CCAs into production, and is now aiming to have a combined fleet of at least 500 of these drones in inventory by 2032. The service is also still expecting to acquire additional CCAs, which could be of entirely different types, through a second iterative development cycle, or Increment 2, under this program. This is influencing the service’s crewed fighter force structure plans, but the full scale and scope of those impacts remain to be seen.
An F-35A flies in formation with a pre-production YFQ-42A CCA drone. USAF
“CCA is very much a reality,” Tabor said yesterday, per Air & Space Forces Magazine. “It is going to be a part of our future, and there is absolutely a world in which the incorporation of CCAs into the force will mitigate the requirement for the number of fighters. That’s not the CCA that we have right now, but it is advancing very, very rapidly. We’re confident that it will play a major role in future versions of the fighter force structure report.”
The Air Force’s F-22s are currently set to be its first ‘aerial quarterbacks’ for CCAs, with F-35s and F-47s expected to follow. At the same time, TWZ has highlighted previously how CCA could offer particular value when paired with fourth-generation fighters like the F-16. This, in turn, could actually bolster the case for new Viper acquisitions as a more affordable force multiplier.
A pre-production YFQ-44A Fury drone flies in formation with an F-35. USAF
The Air Force’s ability to secure necessary funding and other factors will play in all this, too. 2035 is a long way off from a budgetary perspective. It also stretches across multiple election cycles, including the one that will decide the next presidential administration, all of which could lead to major changes in defense spending priorities. Congress can and routinely does demand that the U.S. military alter major procurement plans. Just in the past two years or so, legislators have intervened to force the Air Force to move ahead with the acquisition of new E-7A Wedgetail airborne early warning and control planes and to save the U.S. Navy F/A-XX sixth-generation fighter program.
In the meantime, the Air Force clearly faces many continued questions about how to balance the need to modernize its fighter fleets while ensuring it retains enough tactical airpower to meet current and future operational demands. Even so, the service says it sees no need to rush to make a decision about whether to choose the “lazy” route of just buying new F-16s.
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.
"Ghost Shark has teeth now." – @PatConroy1, Australia's Minister for Defence Industry.
The @ausgov and @Australian_Navy confirmed the payloads that our Ghost Shark extra-large autonomous submarine carries: sea mines, logistics caches, and air-launched effects for ISR and strike.… pic.twitter.com/IALPFpOf4V
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.
While the 12-tube ALTIUS aerial drone launcher on the left is seen elevating, the launcher on the right remains lowered. Anduril/screencap
The footage subsequently cuts to an ALTIUS-type drone being launched from one of the tubes, with Ghost Shark itself remaining surfaced.
A Ghost Shark launches an ALTIUS aerial drone from a raised 12-tube launcher. Anduril/screencap
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.
Examples of the Anduril ALTIUS-600 displayed during a press conference at the Anduril Australia factory in Sydney, New South Wales. Australian Department of Defense
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.
Looking aft, with the two masts raised. Anduril/screencap
“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 first Ghost Shark for the Royal Australian Navy. In this earlier view, the retractable masts are not visible. Australian Department of Defense
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.
Ghost Shark submerged, with its reflection seen on the surface. This provides a good view of the retracted masts and how they fit neatly with the closed upper payload doors. Anduril/screencap
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.
A rendering of a Ghost Shark in Royal Australian Navy service. Australian Department of Defense
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.
One of the KC-10A Extender aerial refueling tankers the U.S. Air Force retired some two years ago has left the boneyard at Davis-Monthan Air Force Base in Arizona. This aircraft is one of a set of KC-10As sold to private aerial refueling contractor Omega Air. At least one other potential operator, a still mysterious end user somewhere in North Africa, could also be in line to pick up several ex-Air Force Extenders.
Maxim Loshak, who goes by the handle @az_aviator on X and Instagram, caught the KC-10A leaving Davis-Monthan earlier today. The aircraft currently carries U.S. civil registration number N82247, and Federal Aviation Administration (FAA) records confirm that Omega Air is the new owner. Online flight tracking data also shows the aircraft subsequently flew to San Antonio International Airport, which is Omega’s main base of operations.
Omega's first KC-10A, N82247 (formerly 86-0034), has departed Davis-Monthan en route to San Antonio International Airport. pic.twitter.com/kALlgeuLGy
The KC-10A in question previously carried the Air Force registration number 86-0034 and had been in the boneyard since May 12, 2023, per the service’s records. The Air Force acquired a total of 60 Extender tankers between 1979 and 1987, and lost one in an accident in 1987. The very last of the remaining 59 KC-10As was retired in September 2024. The Extender was derived from the three-engine DC-10 airliner and was designed to refuel aircraft using either the boom or the probe-and-drogue method.
As seen in the picture at the top of this story, N82247 notably lacks the KC-10A’s trademark boom under the rear fuselage. This is actually not entirely unexpected. The Air Force had put 10 Extenders up for auction last year in a non-flyable state. Each of the planes was missing a single engine, taken from under one of their wings, for reasons that are still not entirely clear. These particular aircraft were also among the first KC-10As to be retired, and their booms had been stripped to be used as spares for other examples that had remained in service until the type’s final retirement in 2024.
A stock picture of a KC-10A Extender showing the standard configuration while in US Air Force service, with the boom under the tail. USAF/Kenneth AbbateA KC-10 seen refueling a US Navy F/A-18 Hornet via the probe-and-drogue method. USN
In addition to sourcing the requisite engines, “in order to make them flyable, the winning bidder will need to work with Boeing to obtain a fly-away kit to seal up the area where the boom systems was,” an Air Force spokesperson told us last year while the 10 KC-10As were still up for auction.
Omega Air could fit new booms to this KC-10A, as well as other ex-USAF Extenders it is in the process of acquiring. The company could also leave some of them configured as probe-and-drogue-only tankers. Omega already flies two ex-Dutch KDC-10 tankers, which are broadly similar to the KC-10, as well as another DC-10 converted into a probe-and-drogue-only tanker. The company has several Boeing 707-based tankers, as well.
One of Omega Air’s KDC-10s refuels US Air Force F-16s. USAF
There is a possibility that some of the KC-10As that Omega is acquiring could be operated in non-tanker roles. Carrying cargo was also a major role for Extender while in Air Force service. Still, this seems unlikely given that aerial refueling is Omega’s primary business. Some of the ex-Air Force Extenders might also be used as sources of spare parts. TWZ has reached out for more information about Omega’s overall plans for its new acquisitions.
A KC-10 prepares to link up with a KC-46 during a test. A KC-135 tanker flies in the background. USAF
With all this in mind, the Air Force’s decision to retire the KC-10A fleet entirely was and still is controversial. Though the Extenders were certainly aging, they were also highly flexible tankers able to carry greater loads of fuel than the KC-46s that supplanted them.
Ukraine continues to struggle with throttling of the speeds at which weapons using the vital satellite communications services provided by the SpaceX Starlink system can operate, and one weapons manufacturer tells us it is rethinking whether to rely on it in the future. As we have previously reported, heavy use of Starlink on both sides of the conflict in Ukraine, including as a means of guiding one-way attackers in the air and at sea, has underscored potential risks of exclusive reliance on Elon Musk’s orbital communications networks in critical tactical tasks.
At issue are complaints by Ukrainian officials that “in various sectors of the front, the equipment ceases to function at speeds of 130–161 kilometers per hour.”
A limit on how fast Starlink terminals on vehicles can travel before the feed is cut off in certain areas impacts a slew of weapons and campaigns, especially strikes on Russian logistics behind enemy lines and in the sea of Asov, as well as the control of defensive interceptor drones critical for taking down Russian long-range one-way attack drones, like the notorious Shahed-136.
The following video shows one such Shahed interception.
Spectacular footage of a Ukrainian interceptor striking a Russian Shahed kamikaze drone, followed by its fall to the ground. pic.twitter.com/8DrJyS22Fn
The limiting of Starlink/Starshield occurred amid deteriorating relations between the Trump administration and Ukrainian President Volodymyr Zelensky. The latest chill between Washington and Kyiv was sparked by the American leader’s claims that Ukraine’s attacks on Russia’s energy infrastructure have reduced the supply of diesel fuel to the U.S. and other nations more than the conflict in the Middle East. Trump was upset Ukraine kept hitting these targets despite his demanding they stop.
Q: Do you think Ukraine should stop attacks on Russian oil refineries? Have you told Zelenskyy that? TRUMP: We've talked about it, we have, and I think they're slowing it down, but they are causing a lot of problems. The lack of refineries is the problem. pic.twitter.com/ffpFnRqFlk
Exacerbating this issue, Trump on Oct. 9 announced via his Truth Social platform that he had made a deal to purchase diesel from Russia, pivoting away from a years-old Western policy that placed massive economic pressure on Moscow.
Trump: "I have just concluded a highly successful discussion with President Vladimir Putin, of Russia, wherein it was agreed that Russia will immediately supply over 300,000 Tons of Diesel Fuel to the American and Global Marketplace, another 500,000 Tons during the month of… pic.twitter.com/zH0I6HA941
Who gave the order to limit the speeds at which Ukrainian weapons using the Starlink/Starshield system operate is unclear.
“The order to limit a satellite system used by Ukraine for battlefield communications and drone operations came from inside the White House,” Reuters reported last week, citing two U.S. officials and a Western official briefed on the matter. “The officials said leaders at the Defense Department received a message that the SpaceX Starshield service for the Ukrainian military needed to be slowed.”
“No such request was ever made by the president,” a U.S. official told us on Monday.
“There has been no change to Department of War policy regarding intelligence sharing or any capabilities we are enabling Europeans to provide to Ukraine,” a senior Pentagon official responded to our questions about whether the Pentagon imposed the limits and, if so, why.
When we pushed for a more specific response to the Starlink/Starshield concerns, the Pentagon declined comment. However, Tuesday afternoon, Defense Secretary Pete Hegseth said the Pentagon did not order any changes and that Ukraine violated Starlink’s terms of services.
We reached out to SpaceX as well, but the company did not immediately respond. Last week, SpaceX’s founder and CEO, Elon Musk, said that “any limits on speed or usage are decided by the US military and ultimately” Trump. Musk had previously refused Ukrainian requests to use Starlink against targets inside Russia.
The prohibition against using Starlink inside Russia has drastically limited Ukraine’s ability to strike dynamic targets like mobile ballistic missile launchers and hunt for drone launch sites. However, Ukraine has not had to rely on Starlink in its campaign against oil infrastructure or other fixed targets deep inside Russia which upset Trump in the first place.
Tuesday morning, Zelensky spoke with U.S. Secretary of State Marco Rubio and again brought up Starlink/Starshield in addition to other major concerns.
“…the situation with Starlink/Starshield… needs to be restored,” Zelensky urged.
I spoke with Marco Rubio @SecRubio, and it was a substantive conversation – focused on the issues that matter. I am grateful for his readiness to help and his clear position. First, ballistic missile interceptors, which are needed to protect lives. Second, early warning of…
— Volodymyr Zelenskyy / Володимир Зеленський (@ZelenskyyUa) October 20, 2026
Rubio denied that any assistance was being withheld from Ukraine. Noting that Starlink “is a private company,” the secretary told reporters that Trump is “frustrated…because he doesn’t like to be blamed for things that aren’t true, including accusations that somehow he had ordered intelligence sharing to be cut off. And that’s not true; he’s said that repeatedly.”
SECRETARY RUBIO: There's nothing being deliberately denied to Ukraine. It's simply a balance between our obligations to other partners, and frankly, our own standards and requirements for our own facilities as well. pic.twitter.com/x9NWbIufBa
This most recent flap isn’t the first time SpaceX and Musk have faced particularly significant criticism over limiting some Ukrainian use of the network. Actions SpaceX took earlier this year to block unregistered Starlink terminals also had major consequences for Russian forces, which were sent scrambling to find alternatives to fill the massive resulting communications gap.
Given the tenuous nature of Ukraine’s ability to use Starlink/Starshield, the Wild Hornets company is reevaluating whether to use the SpaceX system in future endeavors even though, so far, it has experienced few problems with it. Wild Hornets is a major Ukrainian combat drone maker. Among other weapons, it makes the Sting interceptors, designed to defend against Russian Shahed kamikaze drones.
The Starlink/Starshield issue isn’t affecting current operations, a Wild Hornets spokesman told us Tuesday morning. “Our own communications system provides the basic connection to our interceptors,” he said. “Plus, our technology for remote control of the interceptors can use various sources of internet connectivity. True, the military often uses Starlink for this, but in our case, the terminal doesn’t need to be moved at high speeds (it simply provides a connection between the command center and the ground station to which the interceptor is connected—it’s somewhat similar to cell towers).”
Concerns about the reduction in speeds at which Starlink terminals can operate has Wild Hornets thinking about ditching a future project, the spokesman told us.
“But we understand that there are other types of interceptors,” added the spokesman. “For example, some drones carry a terminal on board and need to fly at high speed with it. In such cases, Starlink’s limitations make their operation impossible. From this point of view, it also makes us rethink some of the projects we’re currently working on. For example, launching interceptors from aerial platforms.”
“We’re keeping an eye on the situation,” the spokesman continued. “For our current operations (connections with ground stations), we can use any source of stable internet connectivity. Therefore, various solutions are possible in different locations. However, for these needs, everything is operating normally with Starlink at the moment. As for our plans with new projects, we don’t have a clear decision yet, but we will be testing alternatives.”
The spokesman declined to provide further details about what “alternatives” could look like.
There are a number of ways the lack of Starlink for extended-range drone operations could be mitigated to a degree, but the persistent, reliable, high-bandwidth and compact capability SpaceX provides has no direct alternative at this time. The use of drones that work as line-of-sight relays, which can be daisy chained together electronically with other airborne relays, with a connection spanning dozens or even hundreds of miles to a ground entry point is possible. You can read about this concept here. The use of swarms of balloons to create an active network over a battlespace and using Starlink on those slower moving platforms to relay line-of-sight connections to multiple drones below is another possibility. You can read more about this concept here. But we must stress again, nothing can fully replace Starlink/Starshield and its seamless beyond line-of-sight communications architecture at this time.
“I believe, in any case, depending on a single solution is very risky,” the Wild Hornets spokesman proffered. “Especially if you don’t have full control over it. Especially when it comes to something as critical on the battlefield as communications. That’s exactly why our ecosystem is built around our own communications technology and basically is open to various solutions when it comes to internet connectivity.”
The No. 1 interceptor: STING by Wild Hornets has destroyed over 15,000 Shaheds and Gerberas in one year
Confirmed data shows that STING has topped the interceptor rankings for 12 consecutive months. In September this year, Ukraine’s Defense Forces downed around 1,600 Shaheds,… pic.twitter.com/4v1aeOxPiy
As far as military units are concerned, the commander of the Georgian Legion told us that his forces have been affected by issues with Starlink/Starshield even though the main concerns have been about the speeds at which weapons can travel and still have connectivity. The Georgian Legion is fighting in the heavily contested Kramatorsk region of eastern Ukraine.
“We use Starlink a lot because, in this war, reliable communication is essential,” Mamuka Mamulashvili told us. “It helps us stay connected when everything around us is changing. Of course, we’ve learned not to rely on just one system. There are alternatives, like mobile internet, fiber-optic connections, radio and other satellite systems such as OneWeb. But honestly, none of them can fully replace Starlink in Ukraine right now.”
“The problems were not limited to the speed restriction of approximately 160 km/h,” the Georgian Legion commander pointed out. “Starlink connectivity itself was also intermittent, repeatedly switching on and off. This caused communication disruptions across various drone systems, not just those operating at speeds exceeding 160 km/h. As a result, the impact was broader than the restriction on high-speed interceptor drones. Intermittent connectivity created problems for drone control and communications across multiple systems, affecting their reliability and the ability to carry out missions as intended.”
Drones operated by the Georgian Legion. (Georgian Legion Telegram screencap)
“We had serious communication problems,” Mamulashvili explained. “At one point, our drone operators were struggling to maintain a reliable connection with the drone systems, which disrupted coordination and made it difficult to carry out missions as planned. When you lose the connection between the operator and the drone, you can lose control of the situation in seconds. We managed to adapt, but it definitely affected our work.”
“We have to adapt and find solutions, as we always do,” the commander said. “This war teaches you one thing every day. You can’t depend on a single technology or expect someone else to solve all your problems. You have to be ready for anything and keep moving forward.”
Russian sources, meanwhile, are gloating over the speed limits placed on weapons using Starlink/Starshield, particularly how it is affecting Ukraine’s mid-range drone attacks that have crippled Russian logistics. As we explained in a previous report, Ukrainian units have relied on the SpaceX system to help extend the range of their drones to reach as far as 150 miles into Russian-occupied territory. The SpaceX system is not used to hit targets inside Russia proper.
The following video shows some of these mid-range attacks.
Russian rail logistics are now also the target of Midstrike drones, with lines to Crimea being particularly affected. pic.twitter.com/K1BFd0QVov
“Disabling or slowing down Starlink has significantly reduced the enemy’s ability to launch medium-range drone strikes along the ‘Novorossiya’ highway,” influential Russian milblogger Vladimir Romanov reported. The highway, also known as the R-280, is a key link between cities in occupied southern Ukraine and the occupied Crimean peninsula. The road has been a frequent target of Ukraine’s mid-range strike campaign.
“The success of these strikes depends on the Ukrainian Armed Forces’ access to American satellite communication,” Romanov noted. “For the past six months, the Ukrainian Armed Forces have been attacking civilian transport – trucks, cars, and buses – exclusively through the use of ‘Starshield.’ This means that, for the past six months, American military satellite infrastructure has been used to carry out terrorist acts against Russian civilians, and so on. In other words, the United States is still directly involved in the war with Russia!”
America's gifts to Russia never end, with Russian military bloggers now confirming that Washington's operation to cut Ukraine's Starlink has halted Ukraine's ability to strike Russian logistics routes in Ukraine.
As for how widespread worries among Ukrainian weapons manufacturers are, the Wild Hornets spokesman suggested that his company is not alone. He said he has spoken with other companies relying much more heavily on Starlink/Starshield who have expressed concerns. He pointed to growing interest in the European Eutelsat satellite constellation as an example of companies seeking options, but noted that “of course, creating something like Starlink won’t be easy.”
It will be interesting to see if other Ukrainian weapons companies also consider scrapping plans to rely on Starlink in the future and what architectures will emerge at least as a backstop to it.
NATO member Finland is preparing to reintroduce anti-personnel landmines into its military arsenal, with a contract for around one million examples due to be signed soon, following the country’s withdrawal from the Ottawa Convention that aims to eliminate these weapons. The move comes as Helsinki looks to strengthen its territorial defenses against a longstanding Russian threat and the prospect of a larger Russian military presence along its eastern border in the years ahead.
Finland’s withdrawal from the treaty, which prohibits the use, stockpiling, production, and transfer of anti-personnel mines, took effect on January 10 of this year. Reflecting growing concern among NATO’s eastern-flank members about Russia’s military posture and the lessons of the war in Ukraine, Poland, Lithuania, Latvia, and Estonia have also moved to leave the convention.
Two Finnish conscripts wearing winter camouflage uniforms walk through the snow-covered forest while installing anti-personnel mines during a media day event at the Kainuu Brigade, a Finnish Army unit in Kajaani, Finland, on February 3, 2026. Photo by Alessandro RAMPAZZO / AFP
Mines have, for many centuries, been used to complicate an attacker’s movement, slow operations, and force troops to devote time and resources to clearing obstacles. Anti-personnel mines, in particular, have long been employed in defensive campaigns, but they come with significant humanitarian risks. They can kill or maim civilians long after hostilities end, which has seen them fall foul of international humanitarian law in many countries — at least when those nations don’t see a realistic risk of invasion.
It is a measure of how badly the European security environment has deteriorated that anti-personnel mines are back on the agenda.
The Finnish Defense Forces previously said that discussions with the domestic defense industry and preparations to train military personnel would begin early this year. It has now announced that the project seeks two different types of anti-personnel mines, of Finnish manufacture.
The two weapons will comprise a modern tube mine activated by a tripwire trigger, and a pressure-activated step mine. In the future, more technically advanced mines may also be procured, including cluster-type mines of the kind deployed by Russia in Ukraine. In general, anti-personnel mines have been very widely used by both sides in that conflict, with Kyiv notably receiving them as part of U.S. air packages, as you can read about here. Neither the United States nor Russia are signatories of the Ottawa Convention.
A Russian MON-50 anti-personnel mine captured by the Armed Forces of Ukraine. Photo by Thierry Monasse/Getty Images
“The aim is for production of the new anti-personnel mines to begin in Finland in 2028,” said Col. Riku Mikkonen, inspector of engineers for the Finnish Army Command.
“We have a materials procurement project underway, which is currently in the preparatory and market review phase. At the same time, we are drawing up the technical specifications for the mines,” Mikkonen added. “We will soon move on to the stage where we issue requests for tenders, so that we can eventually proceed to a competitive tendering process and conclude contracts.”
Colonel Riku Mikkonen looks on during a media day event at the Kainuu Brigade in Kajaani, Finland on February 3, 2026. Photo by Alessandro RAMPAZZO / AFP
At this point, no contracts have been signed. However, once the procurement effort is underway, the Finnish Defense Forces are set to return their anti-personnel mine stockpile to what it was before acceding to the Ottawa Convention in 2012.
The first new mines and associated training equipment are expected to become available during 2027. Ultimately, all conscripts will be trained to employ anti-personnel mines. The total cost of the project is around $110 million, with the last of the mines scheduled to be delivered in the 2030s.
Helsinki has stressed that it does not intend to lay anti-personnel mines during peacetime. Mikkonen said the weapons would be used only under emergency conditions.
A Finnish soldier at Vuosanka near Kajaani during a major exercise on NATO’s border with Russia on December 3, 2025. Photo by Owen Humphreys/PA Images via Getty Images
Finland’s decision reflects a national defense philosophy that has long been shaped by direct experience with Soviet aggression. The Soviet Union invaded Finland in 1939, beginning the Winter War, and fought another conflict with the country from 1941 to 1944. Finland lost territory but preserved its independence, subsequently maintaining conscription, a large trained reserve, and a defense strategy built around making any invasion costly.
Russia’s full-scale invasion of Ukraine in 2022 reinforced Finnish concerns that major conventional warfare in Europe remained a realistic possibility. Finland joined NATO in April 2023, and the country shares a little over 800 miles of border with Russia.
Finland’s defensive approach traditionally emphasizes rapid mobilization to defend national territory and delay a much larger attacking force until reinforcements can arrive. The role of anti-personnel mines in that scenario is clear, being sown to slow down infantry movements and hamper advances through vulnerable areas. Their disproportionate effect, at least in theory, is especially relevant for a country with a relatively tiny population compared to the length of its border.
At the same time, anti-personnel mines would form only one part of a much broader defensive system incorporating artillery, airstrikes, engineering obstacles, fortifications, and reserve forces. It should be noted that Finland also has a considerable armory of anti-tank and anti-vehicle mines, most of which are of local manufacture.
Virginia Army National Guard soldiers train on multiple techniques for both the hasty and deliberate emplacement of anti-tank mines with trainers from the Finnish Army’s Karelia Brigade during Exercise Arctic Forge 25, on February 22, 2025, near Kouvola, Finland. U.S. Army National Guard photos by Staff Sgt. Marc Heaton
In general, Moscow has been restructuring its military command arrangements and starting to establish the foundations for a larger conventional presence across northern Europe.
In 2024, Russia reestablished the Leningrad Military District, an apparent response to Finland’s and Sweden’s subsequent entry into NATO.
The Leningrad Military District is responsible for a strategically important region that covers the approaches to St. Petersburg, areas bordering Finland, and territory extending toward the Arctic. Its reestablishment gives Russia a dedicated command structure for managing forces facing NATO across this northern sector.
Russian servicemen take part in a rehearsal for the Victory Day parade in downtown St. Petersburg on June 20, 2020. Photo by OLGA MALTSEVA/AFP via Getty Images
While significant, the creation of a military district does not necessarily generate additional combat power.
Russia’s war in Ukraine continues to drain resources in terms of personnel, equipment, logistics, and more.
Nevertheless, Moscow’s longer-term plans point toward a substantial expansion of its ground forces and military infrastructure in areas facing Finland and the wider NATO alliance.
A central element of Russia’s reorganization is the formation of the 44th Army Corps in the Republic of Karelia, near Finland’s eastern border. The corps was established in 2024 as part of the wider effort to strengthen Russia’s military presence in the northwest.
Russia’s wider military development also encompasses the Kola Peninsula and approaches to the Arctic, where facilities support the Northern Fleet and its strategic nuclear submarine force.
Satellite imagery last year showed construction at the Lupche-Savino garrison near Kandalaksha, including facilities intended to accommodate an artillery brigade and at least part of an engineering brigade. The location is approximately 70 miles east of Finland’s border.
Earlier this year, a separate report by the Finnish Yle media outlet found that the Russian military was expanding a base in the town of Novaya Vilga to hold as many as 6,000 Russian troops. It is located about 100 miles from the Finnish border.
Breaking News: Where exactly is Russia building its massive new military garrison?
For Finland, the situation could change dramatically if the war in Ukraine winds down, and the Russian military assembles in greater strength closer to its borders.
Finland’s Military Intelligence Review 2026 assesses that Russia’s military reforms have not yet significantly increased its capabilities in its immediate vicinity. But it still anticipates a substantial increase in Russian military capabilities as circumstances permit and identifies Finland as a major direction for future force development after the war.
A ceasefire or settlement in Ukraine would not automatically enable Russia to launch a major offensive against Finland. A ceasefire could ease the immediate military pressure on Russia while still creating a serious economic and political challenge for the Kremlin. Russia’s wartime spending has sustained defense-sector production and employment, but winding that spending down risks exposing structural weaknesses.
With a ceasefire or settlement, Moscow would still need to rebuild units, replace equipment, replenish personnel, and establish the logistical capacity to sustain large-scale operations. However, there are indications that this is already happening, at least to a degree.
Recent imagery analysis indicates, for example, a significant buildup of newly delivered Russian armor, including new T-90M tanks, at the 22nd Central Tank Reserve Base, located around 450 miles from the Finnish border.
Mind you, the 22nd with T-90Ms, BTR-82As and BMP-3ms (and maybe BREMs) is just the latest storage depot beign refilled. There's also the 80th mainly with 2S19s and the 374th near the Finnish border with 2S43s and 2S44s since 2025…
Finland’s planned acquisition of anti-personnel mines fits into a broader effort to prepare for a potential future conflict. Prominent in the minds of Finnish — and other Nordic — defense planners is the fact that Russia is rebuilding the command structures and infrastructure needed to support a larger military presence near NATO’s northern frontier, even as the war in Ukraine limits its immediate ability to do so.
The U.S. military has successfully demonstrated a new lower-cost receiver that could form part of a future over-the-horizon (OTH) radar. The testing also raises the question of whether the High Frequency Active Auroral Research Program (HAARP) research site in Alaska, which the U.S. Air Force transferred away more than a decade ago, could be repurposed for operational use in this role. A new radar of this kind would help the United States plug critical gaps in surveillance coverage over the ever-more strategic Arctic region. Canada is notably already pursuing a multi-billion-dollar OTH radar project in cooperation with Australia for this exact purpose.
The U.S. military put out a press release yesterday regarding the testing of the newly developed receiver array, which occurred between September 7 and September 11. This was the culmination of a series of “Arctic air domain awareness” experiments conducted cooperatively by U.S. and Canadian authorities over the past three years.
An aerial view of the HAARP site in Alaska, taken on September 7, 2026. USAF
The final round of experimentation last month “examined whether an existing high-frequency transmitter [HAARP], paired with a newly developed, low-cost [16-element high-frequency] receiver array, could detect aircraft beyond the coverage of current long-range radar sites,” according to the release. “The effort focused on improving awareness across a region where vast distances, harsh weather and limited infrastructure present challenges for air surveillance.”
“Researchers used the University of Alaska Fairbanks’ High Frequency Active Auroral Research Program [HAARP] facility and a receiver array in Cold Bay developed by MITRE to collect data on participating aircraft over the Gulf of Alaska and Bering Sea,” the release added. “MITRE also supported the effort throughout the three-year experiment series and designed and executed the field experiment in partnership with government, scientific, and operational participants.”
A view of the MITRE-developed array in Cold Bay, Alaska, which was part of the testing in September. USAF
The remote HAARP site was built in the 1990s as part of a joint U.S. Air Force and U.S. Navy effort. The Defense Advanced Research Projects Agency (DARPA) was also involved. The central component of the 33-acre facility is an array of 180 crossed-dipole antennas, which can transmit up to 3.6 megawatts of radio frequency energy, according to the Air Force.
In 2014, the U.S. Air Force announced that it would shutter the HAARP site and dismantle it. However, the following year, the decision was instead made to transfer it to the University of Alaska Fairbanks, which has continued to operate it as a civilian research facility.
“During an experimental air domain awareness initiative, HAARP served as a high-power illuminator, transmitting signals toward the ionosphere to support the detection of airborne targets over Alaska’s maritime approaches,” according to the captions of several pictures that accompanied the release yesterday. “The experiment evaluated bistatic over-the-horizon detection methods to explore potential improvements in long-range surveillance and air domain awareness across Alaska’s maritime approaches.”
Another view of crossed-dipole antennas at the HAARP site. USAF
The most common types of OTH radars are so-called ‘skywave’ or ‘backscatter’ designs. They usually consist of two large and geographically separated arrays of antennas. The ‘illuminator’ array pumps out signals that are bounced off the ionosphere, the ionized layer of Earth’s upper atmosphere, at a specific angle so that they return to the ‘receiver’ array. Objects of interest (in the air and/or on the surface depending on the specific configuration) are detected in the process. AsTWZ has previously written:
“Commonly, radars are limited by line of sight due to the curvature of the Earth in relation to the altitude they are operating at. OTHRs overcome this critical limitation, but with some major drawbacks.”
…
“While they offer much lower fidelity than many of their line-of-sight counterparts in most cases, they make up for it in huge range, hundreds of miles to thousands of miles (1,500 miles is common, for instance, for powerful military sky wave/backscatter OTHR systems) and a large coverage area. The sky wave type of OTHRs achieve this by bouncing their radio waves off the ionosphere to a coverage area where they hit targets and return the same way to the receiving station. The angle at which the radio waves hit the ionosphere dictates the range, and that angle is limited to a specific envelope or the waves won’t properly bounce back toward Earth. As such, placing the radar in the right place in relation to the targeted surveillance area or areas, to begin with, is key.”
In the testing last month, Air Force E-3 Sentry Airborne Warning and Control System (AWACS) radar planes, HC-130J Combat King II rescue aircraft, and KC-135 aerial refueling tankers “served as cooperative targets, providing known positions against which researchers could compare the experimental data,” according to the official release. “The team successfully completed testing, meeting or exceeding its test execution objectives. Initial results show the system was successfully able to achieve full skywave (beyond line of sight) detections of aircraft and correlation to truth flights. Thorough data analysis is ongoing.”
An Alaska-based E-3 Sentry receives fuel from a KC-135 tanker during an exercise in 2022. USAFAn HC-130J Combat King II seen landing at Joint Base Elmendorf-Richardson in Alaska in August. USAF/Alejandro Pena
The release also says that the tests “explored how existing infrastructure and emerging technology could complement current surveillance capabilities.” This raises the possibility that the HAARP site, specifically, might be utilized as part of a new OTH radar. Whether or not this is actually under consideration is still unclear, and TWZ has reached out for more information.
Today, NORAD relies heavily on a network of ground-based radars called the North Warning System (NWS) to provide aerial surveillance coverage in the High North. The radars that make up the NWS are also all pointed northward, and none of them provide the kind of wide-area long-range coverage that an OTH design would offer.
A map showing NWS radar sites in Canada and their coverage arcs. Nasittuq Corporation
The NWS reflects a long-standing focus on monitoring for aerial threats heading across the North Pole toward North America, especially possible nuclear strikes from Russia (and the Soviet Union before it). However, new avenues for geostrategic competition in the Arctic with Russia, as well as China, over natural resources, from oil and natural gas to fish and other sealife, as well as trade routes have emerged in recent years amid receding ice and other impacts of global climate change. This, in turn, has only prompted growing demand for surveillance coverage.
“We need a layered sensing grid, from [the] seafloor to the space layer. And we have no choice. It has to be layered and deep, a defense in depth, from a sensing point of view,” Royal Canadian Air Force (RCAF) Maj. Gen. Chris McKenna, head of 1 Canadian Air Division and the Canadian NORAD Region, also said during a panel discussion at the Air & Space Forces Association’s (AFA) annual Warfare Symposium in 2025, at which TWZ was in attendance. “And I will say I suffer from an insufficiency of ISR [intelligence, surveillance, and reconnaissance] in the Arctic on a daily basis. And I am fighting for information.”
McKenna was responding at the time to a direct question about gaps in so-called “domain awareness” in and around the Arctic and how to address them.
“I think there’s an importance here of not just air domain, but also space domain, and having a sufficiency of ISR in the Arctic to actually build you the [domain awareness] picture,” he added. “I haven’t really touched on over-the-horizon radar, but I certainly can get into it. I think that’s a really important capability given the austerity of the Arctic and the need for it to cue other things.”
For its part, Canada is now building its own new Arctic Over The Horizon Radar (A-OTHR), at an estimated cost of more than $4 billion. In an announcement last year that caught many off guard, the Canadian government announced that it would be leveraging technology originally developed for Australia’s Jindalee Operational Radar Network (JORN) to support this development. It is also important to note here that relations between Canadian authorities and the Trump administration have been and continue to be heavily strained over a variety of issues, which has prompted broad concerns about future defense and security cooperation.
An element of Australia’s Jindalee Operational Radar Network (JORN). Australian Department of Defense
Back in the United States, OTH radar plans are also now tied in with the broader Golden Dome air and missile defense initiative. Golden Dome is seeking to establish new layers of defense around the U.S. homeland against a wide array of threat types, and puts major emphasis on new space-based sensor and interceptor capabilities. Expanded defensive architectures within the Earth’s atmosphere are also part of this plan.
“Adversaries are developing and building advanced nuclear and conventional delivery capabilities,” U.S. Army Lt. Gen. Joseph Jarrard, Vice Commander of the U.S. element of NORAD and Deputy Commander of U.S. Northern Command (NORTHCOM), warned at the annual Space & Missile Defense (SMD) Symposium in August. This includes “cruise, hypersonic, and ballistic missiles, as well as fractional orbital bombardment systems, or FOBS, to threaten not only Alaska and Hawaii, but the entire continent of the United States.”
Chinese hypersonic and other developments, in particular, enable new modes of attack that “can approach North America from the south, rather than the traditional northerly vector for which our legacy early warning radars were designed,” Jarrard continued. “The Chinese have also been building a conventionally-armed ICBM [intercontinental ballistic missile] equipped with hypersonic glide vehicles that can range [sic] targets throughout Alaska, providing Chinese leaders strike options against our homeland below the nuclear threshold.”
“Russia’s advanced missiles, like the nuclear-armed Avangard hypersonic glide vehicle, are designed to circumvent the ground-based radars used by NORAD and NORTHCOM to detect and characterize an inbound threat, and challenge the ability to provide threat warning and attack assessment,” he added.
New OTH radars positioned in Alaska and elsewhere in the Pacific will not be able to address all of these threat developments alone. At the same time, the recent testing leveraging the HAARP site is another step toward meeting demands for sorely needed expanded long-range radar coverage in the Arctic.
New photos provide an interesting first public look inside the payload bay of Australia’s Ghost Shark extra-large autonomous underwater vehicle (XL-AUV), and a glimpse of the highly modular concept at the heart of the Royal Australian Navy’s emerging undersea warfare capability. Australian authorities had said in the past that they plan to use Ghost Sharks to conduct “persistent intelligence, surveillance, reconnaissance and strike” missions, but without any real elaboration.
The photographs were taken during a recent visit to the Anduril Australia factory in Sydney, New South Wales, by Pat Conroy, Australia’s Minister for Defense Industry. They emerged as the Australian government announced new details of payload development for Ghost Shark, the Speartooth large uncrewed underwater vehicle (LUUV), and the BlueBottle uncrewed surface vessel (USV), on October 19. While the announcement described the payloads in very broad terms, the photos plus additional details from the Anduril event reveal a more concrete picture of the missions Ghost Shark is being designed to perform.
Left to right: David Goodrich, CEO of Anduril Australia; Chief of Navy, Vice Adm. Matthew Buckley; Professor Tanya Monro, AC Chief Defense Scientist; and Pat Conroy, Minister for Defense Industry, stand in front of a Ghost Shark, with payload bay open, at the Anduril Australia factory in Sydney, New South Wales. Australian Department of Defense
The three previously undisclosed payload options include deploying up to 12 sea mines in a mission, leaving supply caches on the seabed, and launching Anduril’s ALTIUS aerial drones for reconnaissance or strike missions.
“Ghost Shark now has teeth, and will have the ability to inflict damage on any potential adversary,” Conroy said.
The payload bay image is significant in its own right. Ghost Shark’s modular design is intended to accommodate different mission-specific systems, allowing the Royal Australian Navy to configure the same underlying platform for different operational requirements. Ghost Shark was designed to be extremely modular, flexible, and readily reconfigurable. As part of this, the overall payload portion can be readily configured in different ways using different-sized modular hull sections. Since the nose and the tail are different pieces, with an expandable section in the middle, there is plenty of scope for different payloads as well.
Seeing the internal bay for the first time provides a more tangible look at that approach than earlier photographs of the submarine’s exterior.
Chief of Navy, Vice Adm. Matthew Buckley, makes an address at the Anduril Australia factory in Sydney, New South Wales. The payload-bay spacers are seen immediately behind him. Australian Department of Defense
Inside the bay of one of the Ghost Sharks on display, there appear to be cylindrical spacers, formed in segments, rather than operational stores. These spacers, and other areas inside the bay, look as if they are fabricated from plywood or similar. Overall, this means it is not entirely clear if they represent the kind of ballast that would be loaded to take the place of actual payloads during trials, or whether they are part of a mockup.
Of the three payload options, the ability to deploy ALTIUS aerial drones is particularly noteworthy. An underwater vehicle capable of releasing aerial systems could extend a naval force’s intelligence, surveillance, and reconnaissance (ISR) reach beyond the submarine’s own sensors. Depending on the drone variant and mission configuration, it could also provide a means of delivering effects at a distance without putting personnel directly in harm’s way. Other roles could include stimulating enemy air defense networks, perhaps even responding to pop-up air defence threats as they appear and attacking them. The ability to put miniaturized satcom terminals, as well as AI, on small drones also greatly opens up the possibilities for UUV-launched aerial drones.
The Anduril ALTIUS-600 is displayed during a press conference at the Anduril Australia factory in Sydney, New South Wales. Australian Department of Defense
Which ALTIUS variants the Ghost Shark will be able to deploy has not been publicly disclosed. The models displayed at the Altus factory are all derivatives of the ALTIUS-600 family. Notable versions include the ALTIUS-600 for ISR, as well as the ALTIUS-600M, which is designed for strike missions. As you can read here, the basic drone has an overall weight of between 20 and 27 pounds, depending on its payload, which typically weighs between three and seven pounds. The ALTIUS-600 has a maximum range of around 275 miles and can remain airborne for at least four hours, according to its developer. Unarmed variants of the ALTIUS-600 are designed to be recoverable and reusable, although it is unclear how practical that would be after launch from a UUV.
There is another missing part of the payload puzzle, namely the kinds of capsules that would contain the ALTIUS UAVs for launch from the sub.
The Rheinmetall Asteria 533mm-diameter mine pictured alongside the Ghost Shark is not installed in the vehicle’s payload bay. Its appearance nevertheless provides an intriguing visual counterpart to the newly disclosed mine-delivery capability. According to the manufacturer, the Asteria can be deployed from surface vessels, aircraft, and submarines (normally via torpedo tubes). It can be remotely controlled via an acoustic link and is optimized for the defense of harbors, straits, ports, and other critical areas.
Professor Tanya Monro, AC Chief Defense Scientist, makes an address at the Anduril Australia factory, with the Rheinmetall Asteria mine behind her, immediately to her right, marked with a blue band. Australian Department of Defense
The seabed supply-cache concept points to a different operational role. Ghost Shark could position equipment and supplies underwater for later retrieval, potentially supporting forces operating in areas where conventional resupply is difficult or risky.
The notional supply cache payloads — which are under development by the Defense Science and Technology Group (DSTG) — don’t appear to be on display here. Alex Luck, a naval analyst who closely tracks submarine developments, told TWZ that the cache payloads would likely take the form of capsules, similar in shape to the Asteria mine, but containing whatever supplies need to be moved. It is not immediately clear who would use those caches. One option could be special operations forces, but if the payloads could later rise to the surface, they could be accessed by other forces, too.
It should also be noted that the U.S. Navy and U.S. Marine Corps, in particular, are envisioning future fleets of UUVs and USVs that can carry out kinetic attacks and employ electronic warfare and other non-kinetic effects, as well as emplace mines, providing a direct parallel with the planned mission set for Ghost Shark.
A rendering of a Ghost Shark in Royal Australian Navy service. Australian Defense Force
Some of the new payload capabilities are due to be featured in Exercise Maritime Big Play Pacific in San Diego, an AUKUS Pillar II activity focused on advanced maritime capabilities and interoperability. The Australian government says the development effort involves the Royal Australian Navy, Defense Science and Technology Group, the Advanced Strategic Capabilities Accelerator and defense industry.
The Ghost Shark ‘Alpha’ first prototype was co-developed by Defense Science and Technology Group, the Royal Australian Navy, and Anduril Australia. Australian Department of Defense
Under AUKUS Pillar II, Australia is collaborating with the United Kingdom and the United States on Ghost Shark and its associated capabilities. While Pillar I centers on providing Australia with nuclear-powered submarines, Pillar II focuses on the joint development of advanced defence technologies, including artificial intelligence and autonomous systems.
Exactly how the Ghost Shark will be deployed during the Maritime Big Play Pacific exercise is unclear, but, speaking about the concept of operations, Conroy described examples of it being deployed from a shipping container or launched from the back of a small vessel using a crane. In the past, we have also seen the Ghost Shark loaded in a standard shipping container and transported in a Royal Australian Air Force C-17A Globemaster III airlifter.
A Ghost Shark loaded in a standard shipping container for transport in a Royal Australian Air Force C-17A. Anduril
Australia’s 2026 National Defence Strategy and Integrated Investment Program allocate up to A$5.8 billion (approximately $4.05 billion) over the decade to autonomous and uncrewed undersea warfare capabilities, including A$1.7 billion (approximately $1.19 billion) for a new fleet of Australian-designed and built Ghost Shark vehicles.
The newly released imagery and payload details offer the clearest picture yet of how Australia intends to expand Ghost Shark beyond a conventional underwater surveillance role. The next key milestones should provide more details of how the payloads will be integrated into the vehicle, and how they might be deployed in practice.
A Russian satellite, Kosmos 2612, may have passed within approximately 85 feet (26 meters) of a U.S.-registered satellite belonging to commercial imagery provider ICEYE. This would be an extraordinarily close and potentially dangerous pass-by for two objects in space traveling at thousands of miles per hour. For weeks beforehand, ICEYE-X36, which would be of special interest to Russia, had already found itself in increasingly close orbital alignment with its pursuer. The two satellites now look to be drifting further and further apart, but the episode has been a clear sign of what is to come as the potential for conflict in space only continues to grow.
Publicly available space tracking data from the satellitemap.space and orbitalradar.com websites show that Kosmos 2612 (also written sometimes Cosmos 2612 and abbreviated K2612) and ICEYE X36 had their especially close encounter at approximately 16:07 UTC today. Private space services company LeoLabs also told TWZ today that it could not “confirm or contradict what other data sources have stated publicly,” but that it has “high-confidence that the objects came within approximately [emphasis in the original] 500 meters [1,640 feet] of each other.” Kosmos 2612 had been making progressively closer passes by ICEYE X36 in recent days.
Short time-lapse of part of this morning’s first pass of ICEYE-X36 (59103) and COSMOS 2612 (68762) over South America under partly cloudy skies. pic.twitter.com/t8RhwmKcV4
6/x Note that while ICEYE-X36 was Finnish built, it is (like other ICEYE sats who's ownership transferred) no longer Finnish. It is registered in the US but might be Ukranian owned/leased now.
“COSMOS 2612 closed from hundreds of kilometers away to extreme proximity to ICEYE-X36. It then maneuvered around ICEYE-X36, remained nearby for an extended period, and then began moving away,” LeoLabs also stated in a report assessing the situation, which was updated today and provided to TWZ. “The latest observations show the spacecraft strongly diverging and confirm that the close-proximity activity had ended.”
LeoLabs’ broader assessment here is supported by data from other publicly available sources, as seen below.
UPDATE: Cosmos 2612 appears to have maneuvered following a close approach with the ICEYE satellite.
The latest TLEs show 2612 in a larger orbit that will drift away with no further maneuvers.
None of the distances stated earlier may seem especially close, let alone worrisome, by terrestrial standards. However, this is absolutely abnormal for operations in space that are not being directly coordinated by the parties involved. As a point of reference, in 2020, another Russian satellite, Kosmos 2542, came within 150 to 300 kilometers (93 to 186 miles) of USA 245, a KH-11 spy satellite, and became a major international news story.
“We are aware of the situation and tracking it closely,” a spokesperson for ICEYE’s U.S.-based division told TWZ this morning. “Our constellation architecture is designed for continuity and resilience.”
ICEYE was founded in Finland, but now has offices globally. The company specializes in providing imagery via synthetic aperture radar (SAR) from satellites like ICEYE X36, which was launched in 2024.
SAR has the benefit of being able to capture images day or night, and regardless of bad weather or other obscurants like heavy smoke. There are trade-offs in terms of the kinds of details typically visible via SAR compared to what is seen in visual spectrum imagery. Ukrainian authorities have been utilizing ICEYE imagery for years now, including for targeting purposes, as part of the ongoing conflict with Russia. There have been reports in the past that ICEYE X36 has been operating more directly under the control of the Ukrainian government, but this has not been confirmed.
The Main Directorate of Intelligence of the Ministry of Defense of Ukraine (better known by the acronym GUR) previously released this SAR image of the highly strategic Kerch Bridge that links the occupied Crimean Peninsula to undisputed Russian territory, which it said came via ICEYE. GUR
Kosmos 2612 is one of six satellites (Cosmos 2609 through Cosmos 2614) the Russian military launched via a single Soyuz-2.1b rocket on April 17. The exact purpose and configuration of these satellites are unconfirmed. However, they appear to be so-called inspector types capable of rendezvousing and maneuvering close to other objects in space. We will come back to this later on.
What is clear is that Kosmos 2612 has spent the past three weeks deliberately maneuvering to extremely closely shadow ICEYE X36.
“Over two weeks beginning on September 30, 2026, Cosmos 2612 executed a series of new maneuvers that brought it back into coplanar alignment and placed it at nearly the same altitude as the commercial satellite,” Clayton Swope, Deputy Director of the Aerospace Security Project and Senior Fellow at the Center for Strategic and International Studies (CSIS) think tank in Washington, D.C., along with Research Assistant Chantal Li, wrote in an analysis of the situation just last Thursday.
“According to current orbital elements, the Russian #KOSMOS 2612 satellite is now within 1-2 km [0.6 miles to 1.2 miles] of #ICEYE-X36,” Dr. Marco Langbroek, currently a lecturer on Space Situational Awareness at the Faculty of Aerospace Engineering of Delft Technical University in the Netherlands, wrote in a thread on X on Saturday. “Based on current elements, it might come within meters of the latter within a few hours from now. This is an #RPO [rendezvous and proximity operation] without consent.”
2/x Initially I was skeptic whether #ICEYEX36 really was an intentional target: but a series of manoeuvers by #Kosmos2612 starting on Sept 30, were clearly designed to bring the two objects very close and synchronise their orbital periods, orbital altitude and eccentricity: pic.twitter.com/BhIoi8Rtbe
“New TLEs [two-line elements] show that K2612 made a manuever [sic] on Oct 16 and is now stationkeeping within 5 km [3.1 miles] or less of ICEYE X36,” Jonathan McDowell, an astrophysicist and astronomer, who previously worked for the Harvard-Smithsonian Center for Astrophysics and has long been tracking objects of interest in orbit, also wrote in a series of posts on X on Saturday. “To my knowledge this is the first LEO [low Earth orbit] rendezvous of two active satellites where the owner of one of the sats did not give approval.”
McDowell later clarified that “close passes” of objects in orbit had certainly occurred previously, “but not I think rendezvous [sic] (matching velocity vector).”
“This is the most advanced and potentially dangerous uncooperative RPO we’ve observed,” Adam Marsh, LeoLabs vice president for technical solutions, separately told Breaking Defense.
Unprecedented orbital maneuvering
As underscored by the previous interaction of Kosmos 2542 and USA 245, close shadowing of satellites in orbit is certainly nothing new. The U.S. government, as well as Russia and others, have been observed engaging in this kind of activity in the past. At the same time, just how close Kosmos 2612 got to ICEYE X36, and how long they spent in close alignment, are, at the very least, highly unusual.
“It’s important to note that ‘red’ on ‘blue’ engagements, such as this, are relatively uncommon in Low Earth Orbit (LEO),” LeoLabs’ report points out. At the same time, “this was not a routine conjunction or ‘fly by.’ The sequence included a controlled approach, changes in relative position, close-proximity loitering, additional small maneuvers, and a controlled departure. The behavior is consistent with sophisticated rendezvous and proximity operations (RPO).”
On top of this, there are other signs that what just happened between Kosmos 2612 and ICEYE X36 may follow a Russian playbook of sorts that could also be used in a prelude to an on-orbit anti-satellite attack.
Within weeks of their launch in April, Kosmos 2610, 2611, 2612, 2613, and 2614 had all moved orbital planes shared by multiple ICEYE satellites. Three of them subsequently made close passes by ICEYE X36, specifically, but none of them initially kept station with it. ICEYE CEO Rafal Modrzewski did say “the company later moved its satellite, prompting further Russian manoeuvres [sic],” according to a story Reuters published last week.
Russian satellites approaching ICEYE: a closer look at the timeline.
Tracking data via @LeoLabs_Space . Analysis via COMSPOC SSA.
On April 16, Russia launched six maneuverable satellites (Cosmos 2609-2614) from Plesetsk. Five of them — Cosmos 2610, 2611, 2612, 2613, and 2614… pic.twitter.com/ISoToOptnp
To take a step even further back, before Kosmos 2542 was caught shadowing USA 245 in 2020, there were reports that the U.S. spy satellite had shifted its orbit. This was possibly prompted by the movements of another Russian ‘inspector,’ Kosmos 2543. This does not appear to have ever been confirmed.
While in space, Kosmos 2542 had deployed Kosmos 2543 in November 2019. Then, on July 23, 2020, the U.S. military said that it had detected Kosmos 2543 itself launching a smaller object in what it described as a test of a space-based anti-satellite weapon. In a subsequent interview with Time, then-Chief of Space Operations Gen. John “Jay” Raymond, U.S. Space Force’s top uniformed officer, disclosed that American forces had first observed Russian “nesting doll” satellites – a reference to traditional Russian matryoshka dolls – similarly demonstrating the “characteristics of a weapon system” in 2017.
U.S. officials have been warning for years that Russia’s growing array of inspector-type satellites, ostensibly designed to examine other assets the country has in orbit if they break down or otherwise malfunction, are inherently dual-purpose in nature. Beyond launching projectiles, a host of other modes of attack, kinetic and non-kinetic, are enabled by the underlying ability of a spacecraft to maneuver very close to other objects in orbit and hold that position. This includes the use of grappling arms to cause damage or just tow a satellite out of orbit, spraying aerosols to harm or impair optics and solar panels, and electronic warfare jamming. A satellite could turn out to be the weapon itself, becoming a kinetic interceptor that smashes into its target on command.
A U.S. Defense Intelligence Agency graphic highlighting some of the ways on-orbit attacks can be carried out. DIA
One satellite shadowing another closely in orbit allows various kinds of intelligence gathering, as well. Collection of imagery and signal emissions can offer valuable details about a target’s capabilities and vulnerabilities, as well as how it is being used in a particular context.
“As observed by LeoLabs Global Radar Network and analyzed by our team, COSMOS 2612 demonstrated a sequence of capabilities that could be used to inspect, characterize, shadow, or potentially interfere with another spacecraft,” according to LeoLabs’ report. “These actions require planning, maneuverability, precise navigation, and significant fuel. They may also indicate the use of onboard sensors capable of measuring the relative position of another spacecraft.”
What has just transpired between Kosmos 2612 and ICEYE X36 highlights how just a viable threat of attack can be disruptive in its own right. Simply forcing an imagery-gathering satellite out of position could prevent it from collecting over an intended area, or at least doing so in the most effective manner.
Furthermore, satellites only have a limited amount of fuel with which to maneuver in any way after reaching orbit. Harassment in space that forces them to burn off that finite resource at a higher-than-expected rate could reduce their total operational life expectancy, as well as further limit their effectiveness and make them more vulnerable to attacks or accidents. Debris in space is a steadily growing hazard that satellites increasingly need to dodge.
“We can only speculate about the operation’s goal, but it could have been anything from simply intimidation to outright destruction or sabotage of a U.S.-registered satellite,” CSIS’ Clayton Swope told TWZ directly today in light of the new developments regarding Kosmos 2612 and ICEYE X36. “Perhaps the operation is on hold. There are, however, several other satellites that shadowed ICEYE X36 back in May that could be brought in[to] action too.”
Attribution and broader ramifications
It is important to point out that space, as a domain, inherently creates complications when it comes to attributing any form of attack, should one occur. Satellites do suffer mishaps, sometimes with catastrophic results, the causes of which are not always clear.
Update: Debris from active PRC satellite Yaogan 50-02.@S4S_SDA has now cataloged 62 pieces of debris originating from the PRC's active Yaogan 50-02 satellite (68196 / 2026-051A) on around 20 July 2026 (ref my initial analysis on Substack, link in thread).
Some recordings of USA 32 (#19460), whose fragmentation in LEO on 13 Sep 2026 at approximately 2113 UTC was confirmed by U.S. Space Forces–Space (S4S). By the time of the recordings, a large number of fragments had already dispersed over a wide section of the track. pic.twitter.com/gjRxCTPz2o
“While the intention behind COSMOS 2612’s behavior remains uncertain, the deliberate nature of the activity, the fuel required to conduct this activity, and the proximity to a Western commercial imaging satellite make the event strategically important,” LeoLab’s report notes. “This event, and the capabilities demonstrated, do not establish hostile intent. It does, however, demonstrate capabilities that could support intelligence collection, on-orbit inspection, coercive signaling, interference, or preparation for future counterspace operations.”
It is very possible, if not highly probable, that Kosmos 2612’s recent activities will be indicative of a trend going forward. Aggressive and potentially dangerous maneuvering by armed forces in close proximity to each other is not uncommon within the atmosphere, especially in the air and at sea. Extending a variation of those tactics into the space domain would make sense, especially given the central role that capabilities in orbit increasingly play in modern military operations globally. Those roles extend to early warning, general intelligence gathering, weapons guidance, near-real-time communications, and beyond.
American officials have already said in the past that American assets in space are routinely the target of “reversible attacks,” meaning ones that do not cause permanent damage. That also speaks to the difficulty of attribution if there is no lasting effect or impact to draw attention to.
The U.S. government’s long-time monopoly on the space domain has also been steadily eroding in recent years, especially in light of China’s massive expansion of its intelligence-gathering and other satellite constellations. The scale and scope of what commercial satellite imagery and other space services providers, like ICEYE, offer today have led to a further democratization of space-based capabilities to countries like Ukraine that do not possess significant, if any, constellations of their own.
This satellite image indicating multiple Russian Tu-95 Bear bombers having been damaged or destroyed at Belaya Air Base after a Ukrainian strike last year is indicative of what ICEYE provides commercially. Courtesy ICEYE
More details may yet emerge about Kosmos 2612 and its recent rendezvous in orbit with ICEYE X36, but it already points to how space has become an increasingly likely potential zone for direct conflict going forward.
Germany appears to have dropped plans to directly procure the larger, Block 3 version of Boeing’s MQ-28 Ghost Bat collaborative combat aircraft (CCA), leaving doubts over Berlin’s ambitions to field uncrewed combat aircraft alongside its crewed fighters before the end of the decade.
Boeing confirmed to Breaking Defense that Germany’s Ministry of Defense had informed the company it would not proceed with a direct acquisition of the drone, which had previously been lined up. The decision, first reported by Politico, represents a setback for Boeing’s effort to position the Ghost Bat as a candidate for Berlin’s planned CCA capability, something that had seen it announce a partnership with Rheinmetall, the largest arms manufacturer in Germany, earlier this year.
NEW: Germany has formally scrapped plans to buy the Ghost Bat combat drones directly from Australia, documents show.
Its air force wanted them by 2029. Now it faces a longer wait.
Behind the decision is a much bigger political dilemma facing Germany as it races to rearm. pic.twitter.com/2fWHPoQOl0
“With Boeing Defense Australia as a partner, we are laying the groundwork to optimally tailor the MQ-28 to the Bundeswehr’s requirements,” said Armin Papperger, CEO of Rheinmetall AG, in March of this year. “As a system integrator, we ensure that integration, operation, and further development come from a single source while simultaneously strengthening industrial value creation in the form of an industrial hub in Germany and Europe. We see revenue potential for Rheinmetall in the range of three-digit millions of euros.”
The move does not necessarily mean the MQ-28 is out of contention for Germany’s wider program. Instead, Berlin appears set to move toward a different acquisition approach, with competing designs potentially having an opportunity to demonstrate their capabilities before a selection is made.
A Boeing spokesperson told Breaking Defense the company “stands ready to support” its German customer on the next steps, while referring questions about the decision to the German Ministry of Defense.
An AIM-120 is launched from an MQ-28A Ghost Bat during Trial Kareela at RAAF Base Woomera, South Australia. Australian Department of Defense
The ministry declined to discuss the specific procurement with the same outlet, citing regulations governing public contracting and the need for such matters to be addressed by parliament.
“[As a] matter of principle — and regardless of the specific case in question — we cannot provide information regarding potential procurement projects,” a ministry spokesperson told Breaking Defense.
Germany has set an ambitious goal of fielding CCAs by 2029. These uncrewed aircraft are intended to operate alongside crewed fighters such as the Eurofighter, extending their reach, adding sensors and weapons, and giving air forces additional options for conducting high-risk missions.
A German Eurofighter flies a Quick Reaction Alert (QRA) practice sortie over the southeast of the country. Bundeswehr/Christian Timmig
However, the reported change in Berlin’s acquisition plans raises questions about whether that deadline remains achievable.
According to Politico, Germany is now looking toward the early 2030s for the capability to arrive, with flight testing expected to begin in 2027. That would suggest the original target was based around the introduction of the MQ-28, which has already undergone extensive testing, rather than a newer design. The reshuffle could now give prospective suppliers additional time to demonstrate their designs.
The reported new timeline suggests that Germany’s CCA effort could be entering a more competitive and potentially longer development phase.
There is also a question about the degree of operational capability that will initially be fielded by the given date. Getting a CCA into meaningful frontline service is a very significant task, calling for integration with crewed fighters, communications systems, mission-planning networks, weapons, and sensors. Then there is also testing, certification, training, and the establishment of supporting infrastructure. For Germany in particular, getting a military drone, let alone an armed one, cleared to operate routinely in commercial airspace has long been an issue.
If Germany acquired the Ghost Bat directly, it would have offered a route to a CCA capability without having to begin an entirely new aircraft development effort.
However, the MQ-28 was always one of a larger field of candidate aircraft.
A week ago, Airbus and Kratos Defense & Security Solutions announced the first flight of their U740 Valkyrie uncrewed combat aircraft, a Europeanized version of the XQ-58A Valkyrie. Airbus is simultaneously working on its larger U760 Ravenstorm, intended for service in the early 2030s, and the company has previously pitched a stealthy CCA-like concept known as Wingman.
The ride of the Valkyrie With the successful first flight of the Airbus U740 Valkyrie in Europe, we are one step closer to introducing an operational uncrewed Collaborative Combat Aircraft (CCA) to the German and other European Armed Forces. The flight achieved all… pic.twitter.com/S2sFrtdmGA
“One option might be a split high-low approach that could pair more capable, longer-range systems for deep-strike missions with cheaper, attritable collaborative combat aircraft that can fly alongside crewed fighters. At this point, it should also be noted that CCAs could also give older fourth-generation fighters a new lease on life, boosting their lethality and survivability by extending their sensor reach, adding weapons capacity, and allowing uncrewed aircraft to take on more dangerous tasks.”
At the same time, Germany continues to define its requirements for a capability described in media reports as a Jagdbomberdrohne, or fighter-bomber drone. Berlin has yet to publicly clarify its intended concept of CCA operations, including whether the Luftwaffe envisions an uncrewed wingman operating alongside crewed fighters, a platform capable of carrying out long-range strike missions independently, or a system designed to perform both roles.
There are signs that the strike mission is being prioritized, at least initially, with a reduced emphasis on air-to-air missions. This is essentially the reverse of the U.S. Air Force’s CCA effort.
Since Germany is set to receive the F-35 stealth fighter, there is also an argument that Berlin could place more orders for the crewed jet. This could have the dual role of filling the gap left by the collapse of the pan-European Future Combat Air System (FCAS), specifically its sixth-generation crewed fighter, and the delayed introduction of the first operational CCAs. Germany is also looking forward to receiving more Eurofighters.
Germany’s first F-35A arrived at Ebbing Air National Guard Base in Arkansas earlier this month, where it will be used for training. Lockheed Martin
Germany’s evolving CCA plans form part of a broader effort by Western air forces to develop uncrewed aircraft capable of working alongside advanced fighters. These systems are intended to expand the number of available platforms, distribute sensors and weapons across a larger force, and potentially take on missions that would otherwise expose pilots and expensive crewed aircraft to greater risk.
Boeing’s Ghost Bat could still have an opportunity to compete, depending on the structure of the eventual acquisition process and the requirements Berlin establishes.
However, with testing reportedly planned from 2027 and operational fielding potentially slipping into the early 2030s, the original 2029 ambition for an operational German CCA appears increasingly uncertain.
Basically, in the European scenario, hundreds or possibly thousands of balloons would be sent east. They would provide attritable real-time reconnaissance, strike, and decoy capabilities, while also acting as a force multiplier for other assets by providing a resilient active network over the battlefield — one that could help fill in the gaps if the space-based layer gets degraded.
“We would like to proliferate the stratosphere with high-altitude balloons, but I mean 200, 300 at a time,” Carpenter told us during last week’s Association of the U.S. Army (AUSA) conference in Washington, D.C., which TWZ attended. The Army would utilize high-altitude balloons “not only as decoys, a lot of decoys, but also communications retrans[mission platforms], electronic sensing, as well as electronic attack, and then obviously air-launched effects to be able to drop them down and use kinetic means as well.”
A sensor-laden high-altitude balloon from Aerostar seen lifting off from Won Pat International Airport on Guam during an exercise in 2024. US Army
Air-launched effects (ALEs) is a collective term the U.S. military now commonly uses to discuss air-launched drones configured for a wide array of missions. The ALE umbrella encompasses designs that can be used for surveillance and reconnaissance, electronic warfare tasks, or signal relay, and can act as decoys. It also includes loitering munitions often referred to as kamikaze drones, capable of carrying kinetic attacks.
U.S. Army soldiers assigned to the Extended Range Sensing and Effects Company, 3d Multi-Domain Effects Battalion, 3d Multi-Domain Task Force, and industry partners attach an Icarus Apollo R stratospheric fixed wing aircraft to an Urban Sky high-altitude balloon during a multi-day Special User Demonstration at Orote Airfield on Naval Station Guam, June 24, 2026, for Valiant Shield 26. (U.S. Army photo by Sgt. 1st Class Ondirae Hamil Abdullah-Robinson) Sgt. 1st Class Ondirae Abdullah-Robinson
In general, modern high-altitude balloons offer persistent deployment that can last for days, weeks or even months at a time. After navigating to an assigned operating area, some modern balloon systems can hold their position, in spite of prevailing winds, by modulating their altitudes to keep on station.
In addition, high-altitude balloons operate at heights providing excellent fields of view for radars, cameras, and other sensors in all directions and across very broad areas. From a perch of 60,000 feet or more, they also offer a way to peer into certain denied areas while still soaring in international airspace and keeping farther away from potential threats. During a conflict, the balloons could be deployed deep into enemy airspace as they are attritable.
Though some balloon systems can hold their general positions in many circumstances, Carpenter told us that seasonal weather changes will still play a role in deployment.
“The flight paths are different. We study that,” he noted. “We understand during what seasons where the best places are to launch those high-altitude systems, and then again to hold enemy cities and capabilities at risk at any time, so that we can defeat them at the time and place of our choosing.”
We asked Carpenter for more details about how he sees balloons being used by troops in Europe.
“I think everybody knows there’ll be a point where satellite communications are going to be degraded, if not eliminated,” he stated. “One of the things that we’re focusing on is in the stratosphere, so above 60,000 feet up to 80,000 feet, which is next to impossible to target unless you’re using one of your exquisite systems, fifth-gen fighters, SA-21 Bravo [S-400 Triumf surface-to-air missile system], etc. to shoot that stuff down.”
Many of the balloons would be equipped with Link 16, a NATO-standard tactical datalink communication system central to U.S. and allied military operations, the general said. Link 16 allows coalition forces to seamlessly transmit and exchange real-time situational awareness data. You can read more about how Link 16 works, and its increasing dependence of space, in our story here.
A graphic the Army previously released showing a notional “operational view” for how its planned the Multi-Domain Sensing System (MDSS) system of systems, including crewed ISR aircraft, might be employed in conjunction with other assets. (U.S. Army)
As for using balloons as ALE delivery platforms, Carpenter told us there are “different technologies, different altitudes that we’d have to deliver those from” at “different ranges, different levels of yield or lethality. But for us, it’s really just a single arrow in a quiver full of arrows, utilizing space capabilities, cyber capabilities, or surface-to-surface capabilities. In this case, you’re talking just another air-to-surface capability with your air-launched effects off balloons.”
Carpenter said that when it comes to balloon-launched ALEs, he is looking at “everything from shorter range, lower yield, maybe targeting an adversary ballistic missile radar, to longer range, higher yield capabilities that you might use to maybe take out a ballistic missile system.”
In such cases, the balloons would carry drones deep into enemy territory, where they would be launched opportunistically to strike the targets Carpenter suggested. The size of the target, and how well it is protected, would determine what kinds of drones the balloons would launch, as well as their proximity to the target.
Russian air defense systems like these S-400 launchers could be targeted by balloon-launched weapons, an Army general told us. (Sergei Malgavko / TASS)
Should a fight break out in Europe tonight, Carpenter said he is confident he can rely on the technology.
“Our operating concept is proven,” he stated, noting that “we’ve already tested those capabilities against most modern adversary systems that exist. We’ve already validated our operating concept in terms of getting to mass and scale that we would need in large-scale conflict.”
As we have previously reported, while high-altitude balloons have been used for decades, the modern concept of these systems was recently employed operationally by the U.S. in a combat theater.
The Army had planned to demonstrate the ability of balloons to operate in swarms with a high degree of autonomy in the Pacific region last year before those assets were redirected to the Middle East. When exactly that deployment occurred and how long it lasted are unclear.
“We were asked to pivot and do some experimentation in combination with operations, and we pivoted and supported operations in CENTCOM [U.S. Central Command],” Andrew Evans, Director of Strategy and Transformation with the Office of the Deputy Chief of Staff of the Army, or G-2, told Breaking Defense, according to a story the outlet published last week. “They were effective for the mission that they were assigned,” he added. However, Evans was not able to disclose the exact location and operational scenarios in which they were used.
To achieve the effects he laid out, Carpenter told us that he will still need to surge capacity to Europe.
“The Army will make decisions on which vendors they’re going to go with,” he pointed out. “But the ability to field that at scale is just simply based on the resources provided. I’m talking about money to go ahead and bring them into theater.”
Pushed to provide details of how quickly he could have the desired number of balloons, Carpenter told us that “if the United States or NATO and its allies were on a wartime footing, it would be extremely rapid, but we would need to get them into theater before crisis turned to conflict. So we’d have to keep a close eye from an IC [intelligence community] perspective on indicators and warnings to make sure we have the right systems on the ground at point of need.”
U.S. Army soldiers from Multi-Domain Command–Europe deploy high-altitude balloons at Tehachapi Airfield, April 22, 2026. (U.S. Army photo by Staff Sgt. Rajheem Dixon, Multi-Domain Command–Europe) Staff Sgt. Rajheem Dixon
The concept Carpenter laid out for how balloons will be used in a future European conflict is another example of the renaissance in lighter-than-air military technology and how the Pentagon is increasingly seeking to weaponize it on a grand scale.
Thanks to Google Earth, we can finally put this one to bed. Since the B-21’s unveiling, people have made wild claims about its wingspan, specifically how tiny it is. This was never the case, as we have reported continuously since we first set eyes on it. Many AI-generated and enthusiast-made B-21 fact sheets have gone viral on social media showing wingspans under 130 feet, which only helped propel the nonsense. Now we can definitively say, give or take a few feet, the B-21 spans 152 feet and is 61 feet long. This puts it at about 12% smaller in terms of wingspan than the B-2, and about the same — 12% smaller — when it comes to length.
The image in question, taken of Edwards AFB and dated June 20, 2026, was recently uploaded to Google Earth. While we have seen satellite images of the B-21 going about its business before, this one was published in the public domain and had enough resolution, when paired with Google Earth’s excellent measurement tools, to get conclusive measurements.
B-21 taxiing between Edwards AFB’s parallel runways. (Google Earth)
Since we first saw the B-21 at Plant 42 in Palmdale, California, during its unveiling, which TWZ attended, we put the top-end size at 155 feet wingspan-wise. That analysis has only narrowed over the years. I have had many emails, social media threads, and other engagements with folks claiming the aircraft was in the sub-130-foot wingspan range. Now we can finally put those battles behind us.
B-21 span nowhere that number. Bizarre people think this. Around 150-155 best estimate
So what does the size tell us? Nothing we don’t already know. The B-21 was always going to be smaller than the B-2. Our analysis from many years ago has stayed the same — the aircraft would be designed with a premium on range and affordability, as well as very low observability, over massive payload. This resulted in the aircraft you see today. It is smaller, but with design priorities that have shifted from its predecessor’s, and 12% smaller in pure dimensions makes total sense considering what Northrop Grumman was trying to achieve. Above all else, it points to the B-21 having an extreme unrefueled range, with improved aerodynamics for high-altitude cruise, more gas for its size, and two efficient engines instead of four.
Official photo of the B-21 in close pre-contact position behind Edwards AFB’s ‘Ghost’ test tanker. (USAF)
As for its length, the B-21 is nearly the same length as an F-15 fighter, which sounds bizarre for a large bomber. However, flying wings are visual transformers, looking like compact UFOs side-on and massive head-on or from the planform view.
What's even more fascinating is that this thing is probably about the same length as an F-15 or close to it. Flying wings are transformers. From flying saucers side-on to massive flying wedges in the bank to huge boomerangs head on. pic.twitter.com/0UXOK0uVVN
As far as what else we can discern from the Google Earth image? Not much. We get a bit of a better view of the B-21’s exhaust configuration, but nothing is really revelatory there. The exhausts are deeply buried with large planar exhaust exit ‘ramps’ and have a large chevron trailing edge over the exhaust aperture itself. We have seen some pretty detailed images of this general arrangement from the rear that have been posted on social media. We do see the exhaust pathway as black in color, a feature that was edited out in the official top-down photo of the B-21 seen above, which was released in April, and this is something we mentioned at the time.
(Images): “Northrop Grumman’s B-21 Raider Over Palmdale”
Regardless, at least we can say with total confidence that the B-21 is smaller than its progenitor, but not by all that much — about 12% to be more exact.
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:
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 soldier is seen hunched under the hexacopter before attaching his harness to the drone. 92nd Assault Brigade/YouTube screencap
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.
With the drone now airborne, the drone controllers monitor the flight from the ground. 92nd Assault Brigade/YouTube screencap
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:
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.
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.
A U.S. Marine Corps K-Max helicopter. U.S. Marine Corps
“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, TWZreported 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.
A DP-14 Hawk shown configured for casualty evacuation. Dragonfly Pictures, Inc.
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.
U.S. Army soldiers run with a test dummy in a stretcher towards a Flowcopter FC-100 drone during an Autonomous Triage and Treatment Challenge taking place near Bemowo Piskie Training Area, Poland, May 10, 2026, as part of Exercise Saber Strike. U.S. Army Reserve photo by Spc. Thomas Madrzak
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.
Nearly a month ago, we reported on a uniquely configured vessel that was far along in its construction at Hudong-Zhonghua Shipyard on Changxing Island in Shanghai. The intentions behind this design appeared to be as an uncrewed underwater vehicle (UUV) mothership, capable of deploying a handful of very large vehicles or many more smaller ones via its stern garage door and well deck. Its large pylons would be used to lift the vessels up and down out of the water and to different levels in the ship. Now it appears China has not just one, but two of these vessels nearly complete.
Make sure to read our initial report on this vessel configuration for full context by clicking here.
(Chinese Internet)
The new image was taken in Guangzhou and the vessel has a near identical shape, but with smaller proportions and minor changes to its overall moldline, compared to the larger one in Shanghai. This new vessel appears to be about a third smaller overall than its counterpart. The lift towers number six in total instead of six larger ones and six smaller ones on the Shanghai vessel. Regardless, the major design features are all there, including the flight deck and hangar behind the forward superstructure, the location of the smokestacks, and so on.
The larger but very similar in configuration UUV mothership that has now been launched in Shanghai. (Chinese Internet)
While two of these assets could still be considered largely intended for experimental use, a growing fleet would have increasing tactical and even strategic importance. Being able to easily launch and recover large numbers of UUVs, or a few very large ones, far from Chinese shores would provide an asymmetric capability. A fleet of ships that is dedicated to deploying, recovering, and tending to these systems, some of which can remain on patrol for very long periods, would be a major indication of how important China sees UUV operations as part of its future strategy.
03 September 2025, China, Beijing: HSU100 uncrewed underwater drones ride along on military transporters at Tiananmen Square in Beijing during a military parade to mark the 80th anniversary of the end of World War II. Photo: Johannes Neudecker/picture alliance via Getty Images picture alliance
There have been rumors that these vessels are part of a larger overall program that will see more ships with similar capabilities constructed. Once again, this would be a strong indication that these vessels’ utility will go beyond testing and limited operational use cases. The launch and recovery of large UUVs remains a conceptual work in progress for the U.S., with nothing similar in the U.S. Navy’s inventory, as we discussed in our original post.
Large long-range UUVs can be used for many tasks, from mapping the sea floor to hunting submarines and ships to searching for mines to launching cruise missiles and drones to being turned into immensely destructive weapons in their own right that can circumvent traditional strategic defenses. For China, providing a credible threat to America’s outposts deep in the Pacific and even the U.S. seaboard would be on the table.
An AJX002 uncrewed underwater vehicle is seen during a military parade marking the 80th anniversary of victory over Japan and the end of World War II, in Beijing’s Tiananmen Square on September 3, 2025. (Photo by Greg Baker / AFP) GREG BAKER
There is speculation online as to where exactly this vessel was built. The first place that came to mind is Guangzhou Shipyard International’s (GSI) facilities on Longxue Island, just southeast of the city of Guangzhou. GSI is a subsidiary of the China State Shipbuilding Corporation (CSSC). It is here that many of China’s most unique vessels are born. These include drone test ships of various kinds, massive beach landing barges, and giant supply ships. Upon closer review of archival satellite imagery, we can say for certain that GSI did build this ship. An image from October 2nd shows it peeking out of a covered graving yard area at the facility prior to launch.
The emergence of two of these large UUV tenders in such a short period of time underscores China’s major bet on the technologies they will support. If more ships are added to the currently known fleet of two, a clearer picture of the People’s Liberation Army Navy’s large UUV plans, and its expeditionary potential, will come into focus.
With a flight deck packed with carrier-based aircraft, including stealthy fifth-generation F-35Cs, the USS Theodore Rooseveltpulled into Yokosuka, Japan, on Friday. Roosevelt is the first non-resident U.S. carrier to visit the key naval port, strategically located on the east side of Japan, in more than four years. Yokosuka is home to the USS George Washington and America’s only forward-based Carrier Strike Group (CSG).
The Roosevelt, which serves as the flagship of CSG 9, escorted by guided-missile cruiser USS Chosin and destroyer USS Decatur, completed the journey from San Diego in 19 days − maneuvering around a typhoon in the Western Pacific − and will participate in the upcoming combined exercise Keen Sword 27. Meanwhile, the USS George H.W. Bushdeparted Thailand after a five-day port call and returned to the Middle East, and the USS Abraham Lincolnarrived home after a nearly eleven-month combat deployment.
Here’s TWZ’s weekly carrier tracker monitoring America’s flattop fleet, including deployed CSGs and Amphibious Ready Groups (ARGs), using publicly available open-source information. Check out last week’s report here.
TWZ/IAN ELLIS-JONES
Theodore Roosevelt Docks In Yokosuka, Japan; First Visiting Carrier In Four Years
Roosevelt and Chosinchopped into the U.S. 7th Fleet-Pacific Command (PACOM) area of responsibility (AOR) and arrived at Commander, Fleet Activities Yokosuka on the morning of October 16. The CSG will spend a few days in port before beginning participation in exercise Keen Sword, a “premier joint-bilateral field training exercise designed to increase readiness and interoperability between the Japan Self-Defense Forces and U.S. military forces,” according to the 7th Fleet press release. The brief visit allows the crew to complete maintenance, resupply, and disembark for liberty before resuming routine operations.
“Our crew is honored to visit Yokosuka and experience the rich culture and hospitality of Japan,” the commanding officer of Roosevelt, Capt. Will Mathis, said in the release. “Port visits like this are vital for crew morale and mission readiness, allowing our Sailors to rest, recharge, and prepare to operate seamlessly alongside our allies during exercise Keen Sword.”
Roosevelt arrives in Yokosuka, Japan. U.S. Navy photo Roosevelt moors at Commander, Fleet Activities Yokosuka. U.S. Navy photo
The five-ship CSG, the composition of which a Navy official confirmed to TWZ, is currently operating on a disaggregated basis − a common practice employed by strike groups with multiple ongoing missions. The duo that departed the U.S. at the end of September linked up with another element of the group, Pearl Harbor-based guided missile destroyer USS Decatur, as they were steaming westbound past the Hawaiian Islands, based on public Automatic Identification System (AIS) data. Decatur arrived in Yokosuka the day after Roosevelt but was not mentioned in the press release.
USS Carl M. Levin, also stationed in Hawaii, was the first ship from the group to deploy, according to DVIDS, the military’s content-sharing platform. Levin departed on September 9 and is operating at an undisclosed location. USS Paul Hamilton, the final ship assigned to CSG 9 to deploy, left San Diego on October 10 after onloading ammo at Bravo Pier and moored at Joint Base Pearl Harbor-Hickam on October 15, AIS data shows. Henry J. Kaiser class fleet replenishment oiler USNS Tippecanoesupported the group’s transit across the Pacific, conducting multiple replenishments-at-sea (RAS), and recently entered the East Sea/Sea of Japan via the Tsugaru Strait before going dark on AIS.
Chosin alongside Roosevelt. Navy photo Decatur and Roosevelt at RIMPAC. Navy photo Tippecanoe conducts a RAS. Navy photo
Multiple reports indicated that medium unmanned surface vessel (MUSV) Seahawk (2) deployed with the group, which would represent a significant operational achievement and the first time a drone boat was assigned to a CSG, but the MUSV quietly slipped out of Point Loma on October 8, more than ten days after Roosevelt. Seahawk reappeared on AIS and docked in Hawaii for a couple days before continuing its journey westbound in the Pacific on October 16. If Seahawk is assigned to CSG 9, it is currently disaggregated, and whether it will join Roosevelt to participate in exercise Keen Sword 27 is unknown.
Acting Secretary of the Navy Hung Cao seemingly confirmed the deployment, saying during a panel at the Association of the United States Army (AUSA) convention that “the Teddy Roosevelt carrier strike group just deployed on October 8 with a medium sized unmanned surface vessel. This is the first carrier strike group to ever deploy with a large size unmanned surface vessel.” However, Roosevelt was more than halfway to Japan on the date referenced. “This is a force multiplier, imagine having more guns out there,” he added.
MUSV Seahawk leaving Point Loma in August. U.S. Navy photo Seahawk’s transit out of San Diego. Source: MarineTraffic/KPLER
TWZ reached out to the Secretary’s office for clarification and to confirm the deployment but did not receive a response. “Seahawk’s operations represent continued progress in the Navy’s efforts to integrate unmanned systems into Fleet operations. As with any emerging capability, we continue to learn, adapt, and refine how these systems are employed,” a Navy official told us.
Abraham Lincoln’s Homecoming
Surrounded by small boats, with hundreds of spectators lining the channel in San Diego Bay and thousands more watching online, the USS Abraham Lincolnarrived home from a historic ten-and-a-half-month combat deployment. The flagship of CSG 3 and her crew of more than 5,000 Sailors and Marines served as the tip of the spear in the war against the Iranian regime, first during Operation Epic Fury and then the subsequent blockades, and set a new record for the most consecutive days at sea without a port call.
USS Abraham Lincoln pulls into San Diego Bay. U.S. Navy photo
Lincolnpulled into Naval Air Station North Island and moored at Berth Lima on October 8, 321 days after casting off on November 21, 2025. Sailors in dress whites manned the rails as the carrier transited the bay, escorted on both sides by small boats and jet skis flying American flags, while family and friends eagerly waited pierside for their return. The video below, shared by the Pentagon, captures the moment.
Family and friends welcome the crew of the USS Abraham Lincoln home. Pentagon video.
Lincoln now lays claim to the second-longest deployment in the modern carrier era, falling just five days short of the 326-day post-Vietnam record held by the USS Gerald R. Ford. The flattop traveled over 93,000 nautical miles during the cruise − more than four trips around the Earth, a post by the public affairs officer highlighted − and conducted 72 replenishments-at-sea, received 20-plus million gallons of aviation fuel, and flew more than 14,000 sorties that totaled 28,500 flight hours, a press release from the Navy highlighted.
The release confirmed for the first time that Lincoln broke the previous record of 206 days set by USS Dwight D. Eisenhower during the COVID pandemic for days spent underway between port visits, as TWZfirst reported. “The ship’s 208 uninterrupted days at sea between Guam and Oman, and its 286 consecutive days at sea between departing San Diego and arriving in Thailand, are record-breaking marks for modern aircraft carriers.”
Lincoln’s cruise took her through both U.S. 7th Fleet and U.S. 5th Fleet AORs. During Operation Epic Fury, which began on February 28 and lasted almost 40 days, Lincoln took up station in the northern Arabian Sea as Commander, Task Force (CTF) 50 and pressured Iran’s southern flank. When major combat operations wound down, the carrier and her air wing patrolled and enforced the blockade line during both rounds that followed.
Carrier Air Wing (CVW) 9, the “Navy’s premier next-generation air wing that served as the primary offensive power” for CSG 3, flew 14,037 sorties − including 4,000 combat missions − and dropped more than 1.37 million pounds of ordnance on thousands of targets while employing 1,499 precision weapons. “This concentrated firepower significantly degraded Iranian Navy capabilities,” a separate statement noted.
“The rapid mobilization and combat execution of CVW-9 during Operation Epic Fury demonstrated the unmatched flexibility of a U.S. Navy carrier strike group,” Capt. J.W. Stigi, commander of CVW-9, said in the statement. “Pairing fifth-generation F-35C stealth and sensor fusion with fourth-generation workhorse strike and electronic attack platforms, Team Shogun destroyed Iran’s conventional Navy and secured vital maritime chokepoints in support of our commander’s objectives.”
Kill marks painted on the island superstructure show CSG 3 destroyed 106 one-way attack drones fired by the Islamic Revolutionary Guard Corps (IRGC), 34 Iranian Navy and IRGC ships, 23 inbound cruise missiles, and 10 enemy submarines. The strike group dropped 1,463 air-to-ground munitions in total, a Sailor explaining the marks said in a video on social media.
George H.W. Bush Leaves Thailand And Returns To The Middle East
The USS George H.W. Bush and her destroyer escort, USS Delbert D. Black, departed Phuket, Thailand, on October 9 after a five-day liberty visit. “Nearly 5,000 Sailors from across the strike group experienced the sights and sounds Thailand has to offer, deepening their understanding of the Thai people and strengthening interpersonal bonds,” according to a press release.
George H.W. Bush departs Phuket, Thailand, on October 9, 2026. U.S. Navy photo
“The Sailors and I had an amazing time in this beautiful country, and I sincerely thank the people of Thailand for their incredible welcome,” Capt. Justin T. Issler, the commanding officer of George H.W. Bush, said about the stop. “This port visit to Phuket was a tremendous opportunity for the crew. We are grateful to our Thai allies for hosting us, and we look forward to continuing our mission here in 7th Fleet, alongside Thailand and our other regional allies and partners.”
USS George H.W. Bush arrives in Thailand. U.S. Navy photo USS George H.W. Bush anchors in Phuket. U.S. Navy photo
Bush dropped anchor approximately two nautical miles south of Ao Makham Deep Sea Port on October 4 after 187 consecutive days at sea. After leaving Phuket, the carrier stopped broadcasting AIS while steaming due south at 10 knots. Imagery on DVIDS confirms that the CSG returned to the Middle East and operating in the U.S. 5th Fleet AOR to “support maritime security and stability,” joining the George Washington CSG once again as the second strike group in the region.
Destroyer USS Mason, which deployed as the integrated air and missile defense (IAMD) commander for the CSG but has disaggregated at times, arrived in Singapore on October 5, likely for a port call. The Arleigh Burke class destroyer departed on October 9 and was last tracked heading northwestbound in the Malacca Strait, likely to rejoin the CSG. The other two destroyers assigned to the CSG, USS Ross and USS Donald Cook, remained in 5th Fleet during the visit.
F-35C Lightning II Operates from A Ford Class Carrier For The First Time
Marking a major milestone, an F-35C Lightning II Joint Strike Fighter made the first arrested landing aboard a Gerald R. Ford class carrier, the Navy’s newest and most advanced class of aircraft carriers that are being built to replace the aging Nimitz fleet. The trap was made by Lt. Cmdr. Robert Mason with the “Salty Dogs” of Air Test and Evaluation Squadron (VX) 23 aboard the future USS John F. Kennedy in the Western Atlantic on October 13. The first catapult launch followed the next day, pictures on DVIDS showed.
F-35Cs approach for first landing aboard PCU John F. Kennedy. U.S. Navy video
VX-23, based out of Naval Air Station Patuxent River in Maryland, is part of the Naval Air Warfare Center Aircraft Division and was putting Kennedy through the ongoing Aircraft Compatibility Testing to assess the “operational capabilities of the ship’s aircraft launch and recovery equipment.” A team from the Patuxent River-based F-35 Integrated Test Force, detached to the ship, conducted the evaluation using a specially instrumented example of the jet. One of the two pictured was externally equipped with an inert Joint Direct Attack Munition (JDAM) bomb.
VX-23 F-35Cs flying over and on the flight deck of PCU John F. Kennedy. U.S. Navy photos
The Navy took preliminary acceptance of Kennedy, which is still considered a Pre-Commissioning Unit, on September 29. This process allows the service to conduct at-sea testing and build underway proficiency while the shipbuilder, Huntington Ingalls Industries, completes final system checks ahead of expected delivery in spring 2027. Kennedy got underway on October 13 and returned to her homeport of Naval Station Norfolk three days later.
The lead ship of the class, the USS Gerald R. Ford, does not currently embark F-35Cs and will need upgrades to field the Navy’s most advanced jet. Back in 2019, TWZwarned that the stealth jet wouldn’t fly from the troubled class for years. Because of this, Congress required that Kennedy be equipped to embark F-35Cs, which led to additional delays for the Navy’s next carrier.
Big Deck Fleet At A Glance
Overall, three U.S. carriers are deployed, three are working up in various states of readiness, three are in maintenance availabilities, one is post-deployment, one is being used primarily for training before deactivation next year, and another will be delivered in 2027. Two amphibious ready groups are deployed, one is forward-deployed, three are working up or in port, and three are in maintenance.
Note: Positions are general approximations. Non-deployed LHA/LHD amphibious warships are not shown.
A pilot flying an F-22 Raptor fighter has issued commands to a YFQ-44A Fury Collaborative Combat Aircraft (CCA) drone in a first-of-its-kind test. This is an important development for the U.S. Air Force’s CCA program, as its F-22s are set to be the first aerial ‘quarterbacks’ for these uncrewed aircraft once they enter operational service.
The Air Force and Anduril, Fury’s prime contractor, announced the “airborne tactical-control demonstration” today, but it occurred sometime earlier this month. An Anduril spokesperson confirmed directly to TWZ that this was a first for an F-22 and a pre-production YFQ-44A. Last month, the company disclosed tests involving Fury flying in formation with F-35 fighters, but stressed that the latter were not yet issuing commands to the former in mid-air. A Fury drone also launched an AIM-120 Advanced Medium-Range Air-to-Air Missile (AMRAAM) for the first time earlier this year.
A stock picture of a pre-production YFQ-44A Fury CCA drone. USAF
The Air Force has orders in now for production of FQ-44As, as well as General Atomics’ FQ-42A Vengeance drones, under the first phase, or Increment 1, of its CCA program. The service is still planning to acquire additional CCAs, which could be of entirely different types, through a follow-on Increment 2. The goal now is to have a fleet of at least 500 Increment 1 CCAs by 2032. The recent test is part of efforts to lay the groundwork for an initial tranche of CCAs to start entering operational service around the end of the decade.
“During the demonstration, an F-22 pilot served as an airborne ‘quarterback,’ issuing high-level tactical directives to a single YFQ-44A,” according to a press release from the Air Force. “The aircraft’s onboard autonomy software interpreted and executed those directives in real time, conducting dynamic flight maneuvers and simulated combat tasks.”
A stock picture of an F-22 Raptor test jet. USAF
“The event brought together personnel from the 412th Test Wing, 422nd Test and Evaluation Squadron, 309th Software Engineering Group, Experimental Operations Unit, F-22 System Program Office and the CCA Software Autonomy and Teaming Branch,” according to the Air Force release.
The Experimental Operations Unit (EOU) mentioned here is based at Nellis Air Force Base in Nevada and has been leading efforts to pave the way for future Air Force CCA operations.
The “Fury and an F-22 both took off [from] Edwards AFB [Air Force Base in California] and joined up midair,” according to a separate release from Anduril. “While in flight, the Raptor pilot sent an updated mission plan to Fury using a tactical data link, commanding Fury through operationally-relevant maneuvers from the cockpit of the crewed quarterback.”
Neither the Air Force nor Anduril provided further details on how the F-22 was configured for this test. Past Air Force budget documents have mentioned the need to integrate “tablets, cables, and associated materials” onto the Raptor for this purpose. A single Raptor is also expected to be able to manage multiple CCA drones simultaneously.
A view of a “battle manager” in the back seat of an L-39 light jet using a tablet-like device during a past test of capabilities to control drones in mid-air conducted by Lockheed Martin’s Skunk Works. Lockheed Martin
A General Atomics Vengeance drone, at right, in flight together with an F-35A Joint Strike Fighter and an F-15E Strike Eagle. General Atomics
In addition, Fury and Vengeance are set to make their debut in a large-scale exercise before the end of the year. Bringing the CCAs to the next iteration of Exercise Emerald Flag will give the Air Force further opportunity to test them in a more operationally relevant context alongside crewed fighters.
“We have not yet done a LFE [large-force employment exercise] with these [CCAs], for real. The first one is going to be Emerald Flag. That’s in December,” Lt. Col. Lyndon “OTTO” Bartlett, the EOU’s Director of Operations, said during a panel at the Air & Space Forces Association’s (AFA) 2026 Air, Space & Cyber Conference in September, at which TWZ was in attendance. “That’ll be our first tip [sic] dip of the toe in an actual force integration.”
The EOU, working together with other Air Force elements and industry partners, still has to answer a host of other outstanding questions unrelated to tactical operations. CCAs will be deployed, launched, recovered, supported, and otherwise operated in ways that are distinct from their crewed counterparts, and for which new policies and procedures will need to be developed. Just making sure human pilots have trust in their uncrewed wingmen operating as expected will be critical, underscoring the specific importance of the demonstration disclosed today. All of this applies equally to the U.S. Marine Corps and U.S. Navy CCA programs, which are being run in very close coordination with the Air Force’s efforts.
When it comes to the recent test involving the F-22 and the YFQ-44A, “this achievement demonstrates what is possible when we are aligned with industry on a shared imperative: delivering capability to the warfighter at unprecedented speed,” Secretary of the Air Force Troy Meink said in a statement today. “We are driving urgency into every part of acquisition from rapid integration and flight learning to disciplined assessment, so we can turn promising technology into combat capability at the pace the threat demands.”
A graphic showing the FQ-42 and FQ-44 designs together. USAF
“This flight shows the power of crewed-uncrewed teaming and the advantage it provides our warfighters,” Air Force Chief of Staff Gen. Ken Wilsbach also said. “We must test often, learn fast, and give commanders what they need, when they need it.”
“The U.S. Air Force’s CCA program is the fastest moving, most mature CCA program anywhere in the world, and will be the first to field operational aircraft,” Mark Shushnar, Anduril’s Vice President of Autonomous Airpower, said as well. “Getting there demands that Anduril and the U.S. Air Force work together to prove out the capability, define the operational procedures, and build trust between operators and their semi-autonomous wingmen.”
With all this in mind, an F-22 issuing orders to a YFQ-44A in mid-air is an important new sign of what is on the horizon for the U.S. Air Force, though there is still work to be done.
Hey guys, just wanted to talk about a cool thing that happened last Sunday. We won Best Military Aviation Submission at the 2026 Defense Media Awards in Washington, D.C., for “What The F-47’s Canards Say About The Rest Of Its Design.” This is the biggest deal in our little corner of journalism. Not just that, but we were nominated in many categories:
Tyler: Best Defense Electronics and Best Missile Defense
Tyler and Joe Trevithick: Best Rotorcraft
Howard Altman: Integrated Maritime, AI Integration, and the John Morrocco Award for In Depth Reporting
Thomas Newdick: Training, Simulation and Readiness, and Missile Defense
Jamie Hunter: Best Multimedia
Hope Seck: National Security Space
Joe Trevithick: Space and Mobile Combat Systems
A big thanks to the committee and the Defense Media Awards!
Welcome to Bunker Talk. This is a weekend open discussion post for the best commenting crew on the net, in which we can chat about all the stuff that went on this week that we didn’t cover. We can also talk about the stuff we did or whatever else grabs your interest. In other words, it’s an off-topic thread.
This week’s caption reads:
VIRGINIA BEACH, Va. (Sep. 18, 2023) – Navy Explosive ordnance disposal (EOD) technicians assigned to EOD Mobile Unit (EODMU) 6 conduct radiological search procedures at a training bunker onboard Joint Expeditionary Base Little Creek-Fort Story as part of a training evolution, Sep. 18. EODMU 6 provides operational EOD capabilities for the location, identification, rendering safe, recovery, field evaluation and disposal of explosive ordnance, including chemical and nuclear weapons.
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These conversations took place during the recently wrapped Association of the U.S. Army (AUSA) annual convention in Washington, D.C., which TWZ attended.
“A lot of the things that are happening right now in terms of long-range fires, integrated air and missile defense, and the lessons that we’re learning from them, we’re able to bring a lot of that to our potential challenges in the Pacific,” Gen. Ron Clark, commander of U.S. Army Pacific (USARPAC), told us at a media roundtable. “Specifically, I am thinking through mobility and camouflage. So it’s one of those age-old Army forgotten sciences of how to hide in plain sight and how to camouflage ourselves from observation, because the ability to be able to see surface entities is almost ubiquitous.”
“Our ability to be able to use electronic warfare, to be able to use just good old-fashioned camouflage, and the ability to deceive our adversary is a must,” Clark added. You can read more about the U.S. military’s camouflage and deception efforts in our story here.
U.S. Army soldiers of Brigade Engineer Battalion camouflages a Humvee while conducting preparations during exercise Combined Resolve VII at the U.S. Army’s Joint Multinational Readiness Center in Hohenfels Germany. (U.S. Army photo by Pfc. Randy Wren) Spc. Randy Wren
A Russian heavy-duty truck painted with zebra-style stripes to confuse AI-assisted target seeking equipment. via X
As tough as things have been for Ukraine and for U.S. forces in the Middle East, the challenges will be even greater in the Pacific, Clark warned.
In Europe and the Middle East, “it’s not a near-peer adversary that we will be working against,” said Clark, referring respectively to Russia and Iran.
“Whereas in our theater, it absolutely is,” the USARPAC commander noted in a reference to China without naming the country. “So our ability to scale that and to think through the problem sets of how do we fight Type One, Type Two UAS? How do we think through ballistic missile defense holistically in the region? We spend a lot of time working with the joint force for solutions associated with that. How do we maneuver inside an archipelagic environment?”
DF-17 medium-range hypersonic ballistic missiles on display during the V-Day military parade in Beijing. (Photo by Sheng Jiapeng/China News Service/VCG via Getty Images) China News Service
For the Army, any fight in the Pacific will require soldiers to be able to hop islands and move through vast swaths of ocean, constantly hunted and frequently inside the Chinese weapons engagement zone. Clark said that the Army’s organic fleet of ships like landing craft, small tugs, and modular causeway systems operated by the service’s 8th Theater Sustainment Command will be vital for maneuver.
Two U.S. Army Landing Craft Utility (LCU) vessels. (U.S. Army) www.twz.com
“But we also have to be able to conduct tactical maneuver with forces on the ground that can provide long-range precision fires, as an example, and then move so that fires, radars, sensors are not easily targeted,” Clark added. “Because if they can see you, they can hit you. And if you know they have an opportunity to return fire, they will. So our lessons that we’re learning are, in some cases, are very, very relevant. In some cases, we can learn from some of the changing characteristics of war.”
Still, the wide-open plains and dense cities of Ukraine are quite different from the beaches and jungles of the Pacific, Clark reminded us.
A U.S. Army soldier assigned to the 1st Battalion, 27th Infantry Regiment, 2nd Mobile Brigade, 25th Infantry Division, observes a linear danger area during the Joint Pacific Multinational Readiness Center Rotation (JPMRC) 26-01 at Schofield Barracks, Hawaii, Nov. 6, 2025. (U.S. Army photo by Sgt. Duke Edwards) Sgt. Duke Edwards
“The way we generally fight does not equate specifically in the Ukraine piece to the maneuver that you would see out of U.S. forces if deployed in a conflict like that,” the USARPAC commander explained. “To be able to use operational maneuver and tactical maneuver in a way that it’s not just simply drone on drone or firing long range fires at one another at scale for an extended period of time. We find our way to work through that problem set and maneuver to positions of advantage and to prevail.”
Ukraine’s 115th Mechanized Brigade has released new footage showing a VB-140 Flamingo interceptor drone attacking a Russian Mi-28 attack helicopter in flight.
The drone approaches from above and flies directly into the helicopter’s spinning main rotor. It’s unclear whether… pic.twitter.com/GCb9FodXG3
When we pushed further on that point, Gen. Xavier T. Brunson, commander of United Nations Command, Combined Forces Command and United States Forces Korea, weighed in.
“To be able to move with sensors everywhere at all times causes us to achieve positions of advantage from distributed locations,” Brunson pointed out. “So the fight is: you look at maneuver. You might maneuver to a position of advantage, knowing that you’re going to change that again. The ability to utilize not only joint sensors but joint effectors, if you will, joint fires, to be able to use those things from different positions changes the shape of the operating environment.”
The bottom line, he added, is that “maneuver is always going to be maneuver. You’re going from A to B, but you might go from A to A1 to A2 to A3 to get to B, and that’s what I think we realize in this distributed fight that’s going on in Ukraine, and so we continue to watch to see what lessons might be coming back into” effect.
In part reacting to lessons learned from Ukraine and the Middle East, the Army is also changing how it trains, Clark stated. In South Korea, he said the service has to get out of the habit of concentrating so heavily on just two annual major training exercises.
“We recognize… that largely the two big exercises every year in Korea focus on large command posts,” Clark proffered. “We’ve got to move away from that. So what we intend to do is take advantage of the knowledge that we have of the threats that exist or that prevail in the Ukraine fight.”
A Republic of Korea Army 5th Engineer Brigade, K1A2 tank crosses a U.S. Army Improved Ribbon Bridge (IRB) during joint wet gap training as part of Freedom Shield 25 at Yeoncheon-gun, Republic of Korea, Mar. 20, 2025. (U.S. Army photo by Sgt. Daniela Lechuga Liggio) Sgt. Daniela Lechuga
Clark said these discussions are underway with his deputy commander, Republic of Korea Army Gen. Sungmin Kim.
“We talk about how we would operate in a distributed fashion. You know as well as I do, there’s a location that we go to to train every year in Korea, and we stay in that place,” Clark said in response to a question from another reporter. “What would it look like if we train from Jeju all the way up to Gyeonggi Province in the north? What would that look like, just with our headquarters alone?”
“So just imagine,” Clark postulated, “if we train across the entirety of the peninsula, and got ourselves in the shape where we would say [to North Korea], ‘You can’t utilize the things that you’ve learned in the fight and the battlefield in Ukraine on us, because we learned the same lessons and we’ve distributed ourselves in such a way that we don’t make ourselves the target. We won’t be moored in place,’ and that’s what I’m talking about when I talk about positional advantage. It might not be the same place to the continuum. It might not be the same place when you’re in crisis or conflict or competition. We might have to change that, and that’s what we’re learning.”
South Korea. (Google Earth)
Another lesson from Ukraine that Army leaders should be paying attention to, said another panelist, is how both sides are using aerial and ground drones to supply frontline forces and evacuate the wounded because human efforts have now become too deadly, thanks to drones.
“I think you also can’t talk about Ukraine without talking about autonomy,” said Tara Murphy Dougherty, CEO of a company called Air, which provides AI-based sustainment solutions to the Army.
“One of the advantages that you get from using simulation and automation, and really using models and compute in order to create convoy plans, as opposed to humans with Excel spreadsheets, is you are able to do many fewer actual convoys because you’re using all of your capabilities so much more effectively and efficiently,” Dougherty posited. “And while it’s an indirect example, I think it does tie to soldier protection because you’re putting fewer soldiers out there in vulnerable settings. I see that not as an end-goal outcome; we need convoys.”
Ultimately, however, the Army will have to advance what Ukraine and Russia are doing with the deployment of aerial drones and uncrewed ground vehicles for logistics by creating “convoys” of autonomous vehicles.
“I see the end goal outcome as having as many autonomous convoys as possible, and we’ve heard today already at this event some of those ideas,” the CEO added. “In the interim, until we get to more autonomy in medevac and more autonomy in convoys when it’s non-soldier material that’s going out to the battlefield, let’s try and put fewer out there while actually getting more material and capability into the force where it needs to be.”
A Hunter Wolf unmanned ground vehicle assigned to Charlie Battery, 3rd Battalion, 320th Field Artillery Regiment, 3rd Mobile Brigade, 101st Airborne Division (Air Assault). (U.S. Army photo by Master Sgt. Anthony Hewitt) Master Sgt. Anthony Hewitt
The Iranian missile and drone barrages on fixed U.S. bases across the Middle East have created some very costly lessons for American forces. As we noted earlier in this story, several troops were killed and critical air defense radars, aircraft and other important equipment were destroyed or damaged. U.S. installations across the region have also suffered damage.
In another media session, we pressed Army officials operating in South Korea about what they learned from watching the destruction caused by Iran and what they are doing to address it.
You can see a satellite image of damage to a U.S. radar site in Jordan below:
NEW: The radar for a THAAD system was struck and apparently destroyed in Jordan while two other THAAD radar systems may have been hit in the UAE, satellite images show – w/ @ThomasBordeaux7https://t.co/qiuWVQgyda
— Gianluca Mezzofiore (@GianlucaMezzo) March 5, 2026
“We certainly are watching what’s happening, and we are learning from what is happening in Operation Epic Fury,” Lt. Gen. Joseph “Joe” Hilbert, commanding general of Eighth Army, stationed in South Korea, told us. “We’re learning what’s happening in Ukraine, and we are working through changes in our own tactics and techniques and procedures to be able to react to those threats and to be able to defend against them.”
For more details, he turned the microphone over to Col. Rosanna “Ro” M. Clemente, commander of the 35th Air Defense Artillery Brigade in South Korea.
“Drawing from those lessons learned, a lot of it is trying to understand how our systems are being hunted by the adversary,” she told us. “So, strictly into all of our training plans, and as we conduct our own internal exercises, all of our air defenders are practicing something as simple as mobility and survivability jumps, which is being able to reposition and displace your systems to different alternative locations based on any type of threat warnings that we receive. They’re very, very well trained. I think all of our soldiers know how to move their systems extremely, extremely well. They move them quickly, and they are able to move them and reposition them into different locations across the peninsula that still maintains that ballistic missile defense coverage.”
U.S. Army Pvt. Nathaniel Mullins, assigned to the 35th Air Defense Artillery Brigade, analyzes a Sentinel A4 air and missile defense radar during a training exercise at Camp Humphreys, South Korea, April 22, 2026. The training highlighted Eighth Army’s continued modernization efforts by preparing soldiers to operate the new radar system. (U.S. Army photo by Cpl. Luciano Alcala) Sgt. Luciano Alcala
In addition, “we also have to rely on the other pillars of integrated air and missile defense, most specifically the passive defensive measures that we also have in place,” she added.
Those measures involve “a little bit more than just hardening – but a couple of other techniques that we’ve learned from the Russia-Ukraine war in terms of deception, how to move things around, create distractions, and make sure that we create different types of dilemmas for the adversary in terms of where our capabilities are and where are they positioned to protect its defended assets.”
The Canadian Forces Snowbirds brought the Canadair CT-114 Tutor’s aerobatic career to a close on Friday, October 16, with a final home-base demonstration at 15 Wing Moose Jaw, Saskatchewan. The private event, which was livestreamed, honored the Canadian-built jet trainer that defined the team for more than half a century, as well as the aircrew and support personnel who kept the increasingly demanding aircraft flying.
This Friday, join us in saying farewell to the CT-114 Tutors.
Watch the last airshow on Friday, October 16, 2026 live on our Facebook page.
While Friday’s performance marks the end of the Tutor’s aerobatic display career with the team, a Grey Cup flyover in Calgary on November 15 remains on the schedule.
Speaking to MooseJawToday on October 15, Snowbirds team lead Maj. Maciej “Match” Hatta described the Tutor’s final season as an emotional milestone for the squadron, as well as an opportunity to recognize the families and support personnel who sustain the team during its annual touring season.
The Snowbirds taxi at Gowen Field, Boise, Idaho, during the Gowen Thunder Open House and Airshow, in 2017. Note the twin smoke tanks below the fuselage. U.S. Air National Guard photo by Master Sgt. Joshua C. Allmaras
Hatta has a long personal history with the aircraft. He flew with the Snowbirds from 2014 to 2017, subsequently worked on testing the Tutor’s avionics upgrades, and returned this year to lead the team through its final season with the jet. Despite having flown around 30 different aircraft as a test pilot, he has a particular attachment to the Tutor.
“This is still my favorite airplane to fly,” he said.
Hatta recalled flying a maintenance test sortie alone the previous day, enjoying the opportunity to look out over the wings without the near-constant radio communications involved in leading a formation display. He also noted the differences between individual aircraft in the fleet.
“They all have their own personality,” Hatta said. “Some of them howl a little more than others. Some get hotter inside. Some have poor air conditioning.”
Lt.-Col. Guillaume Paquet, commanding officer of No. 431 Air Demonstration Squadron, Royal Canadian Air Force (RCAF), said the final season has prompted strong reactions from spectators, many of whom have grown up watching the Snowbirds perform in the Tutor.
“The reality is we’ve been touring this country for 55 years, so everyone has a story, a childhood memory,” Paquet said.
Golden Hawks To Snowbirds
Canada’s military aerobatic tradition dates back to 1929, when the biplane Armstrong Whitworth Siskin helped establish the country’s formation-flying heritage. The modern era began in 1959 with the creation of the Golden Hawks, formed to mark the 50th anniversary of powered flight in Canada and the 35th anniversary of the RCAF. Flying gold-painted Canadair-built F-86 Sabre fighters, the team initially was intended to operate for a single season. Its popularity led to several more years of performances across Canada and the United States before it was disbanded after the 1963 season amid the high costs of maintaining it.
Canada’s centennial celebrations in 1967 brought a new demonstration team, the Golden Centennaires, which flew CT-114 Tutor jet trainers at 100 airshows across Canada and the United States. The Tutors would subsequently become the foundation of the Snowbirds. In 1969, Colonel O.B. Philp, newly appointed commander of No. 2 Canadian Forces Flying Training School at Moose Jaw, Saskatchewan, encouraged instructors to practice formation aerobatics using surplus Tutors left over from the Centennaires program. Initially presented as training and proficiency flying, the formations soon attracted public attention and gradually evolved into an established demonstration team.
The Golden Centennaires existed for only one year to celebrate the centennial of Canada in 1967. Canadian Forces
The formation grew from four aircraft in 1970 to seven in 1971, when the Snowbirds name was adopted following a competition among schoolchildren. Two solo aircraft were added in 1972, establishing the team’s familiar nine-aircraft format. That year, its pilots were assigned to demonstration flying on a full-time basis. The team’s Tutors were modified to support solo operation from the right-hand seat and the demands of inverted flight during aerobatic displays. In 1974, the Tutors received their distinctive red, white, and blue paint scheme, and the team was authorized to perform a fully aerobatic display.
Seven Canadian Forces Snowbirds jets perform an aerial demonstration earlier this year. U.S. Air National Guard photo by Tech. Sgt. Mikayla Gibbs
The Snowbirds subsequently achieved full squadron status as No. 431 Air Demonstration Squadron, becoming one of the most recognizable symbols of Canadian military aviation. Their officially stated mission was to demonstrate the professionalism, teamwork, and flying skills of the Canadian Armed Forces to audiences across North America.
The U.S. Navy Flight Demonstration Squadron, the Blue Angels, join their signature Delta formation with the Snowbirds for a scheduled photo shoot over Evansville, Indiana, in 2015. U.S. Navy photos by Mass Communication Specialist 1st Class Michael Lindsey/Released
However, the Tutor’s final years were marked by a series of serious accidents and renewed scrutiny of its aging systems.
In October 2019, a Snowbirds aircraft crashed in Georgia after an engine fuel-delivery failure, with the pilot surviving an ejection that was itself affected by a parachute malfunction. In May 2020, another Tutor crashed shortly after takeoff near Kamloops, British Columbia, killing the Snowbirds public affairs officer and seriously injuring the pilot; investigators determined that a bird strike had triggered an engine compressor stall. The fleet was temporarily grounded following that accident, with operations resuming under additional restrictions in August 2020.
A further accident at Fort St. John, British Columbia, in August 2022 prompted another fleet-wide operational pause after an engine failure during takeoff; investigators identified an improperly assembled oil filter as the cause. The aircraft returned to service the following month.
The Royal Canadian Air Force’s Snowbirds parked on the flight line at Peterson Air Force Base, Colorado, in 2018, during the North American Aerospace Defense Command’s 60th Anniversary Celebration. DoD photo by Staff Sgt. Emily Kenney, USAF
Subsequent safety measures included restrictions on certain aerobatic maneuvers and formations, minimum runway-length requirements, and limits on flying over water or performing some maneuvers outside gliding distance of a suitable landing surface.
At the same time, the persistent engineering challenges involving the Tutor’s airframe, engines, and ejection system were all factors in its retirement, with the RCAF concluding that further life-extension work was no longer practical.
Developing Canada’s Jet Trainer
Canadair Limited of Montreal began developing the CL-41A Tutor in the mid-1950s as a high-performance jet trainer to prepare RCAF pilots for the Canadair-built F-86 Sabre. The all-metal, low-wing, single-engine aircraft featured side-by-side seating and duplicate flight controls, allowing instructors to monitor students closely and take control when necessary. Two prototypes were built, with the first making its maiden flight on January 13, 1960, with Canadair test pilot Ian MacTavish at the controls.
Capt. Wes MacKay banks his Canadian Forces Tutor jet over downtown Toronto in a practice run before a performance at the Canadian National Exhibition in 1988. Photo by Boris Spremo/Toronto Star via Getty Images
Following an extensive testing and demonstration program, Canadian Minister of National Defence D.S. Harkness announced an order for 190 production aircraft on September 11, 1961. Deliveries began in 1963, with each aircraft reportedly costing approximately C$425,000 (around $394,000). Powered by a General Electric J85-CAN-40 turbojet built under licence by Orenda, the aircraft entered RCAF training service in late 1964 under the designation CT-114 Tutor.
As well as the RCAF, the Tutor found one other military operator in Malaysia. The Royal Malaysian Air Force received 20 examples designated the CL-41G Tebuan (meaning “Wasp” in the Malay language), which served between 1967 and 1986 in the ground-attack role.
The Tutor served as the RCAF’s primary jet trainer for decades, accumulating more than one million flight hours before its training role ended in 2000. It was replaced by the CT-156 Harvard II and CT-155 Hawk. The aircraft nevertheless remained in military service with the Snowbirds.
The Next Chapter
The Tutor’s retirement will bring an end to a long chapter in Canadian military aviation, but the Snowbirds are expected to continue flying with a new aircraft type. In May of this year, the Department of National Defence announced plans to replace the CT-114 with the CT-157 Siskin II, based on the Pilatus PC-21 turboprop trainer. The new demonstration capability will remain at 15 Wing Moose Jaw and is expected to become operational in the early 2030s.
Today the Government of Canada announced a commitment to purchase a future RCAF air demonstration capability. After more than six decades of service 2026 will mark the final season for the CT‑114 Tutor aircraft fleet which has represented Canada with dignity and pride since 1971. pic.twitter.com/iqRNE8d8H3
— Royal Canadian Air Force (@RCAF_ARC) May 19, 2026
The Siskin II has already been procured under Canada’s wider Future Aircrew Training (FAcT) program, for advanced fixed-wing and jet preparation. It is one of five aircraft types being procured under a 25-year, C$11.2-billion (approximately $7.9 billion) contract awarded to SkyAlyne in 2024. The other four types are the CT-102B Astra II (Grob G 120TP) for basic pilot training; CT-157 Siskin II for advanced fixed-wing and jet preparation; CT-145E Expeditor II (Beechcraft King Air 260) for multi-engine training; CT-153 Juno (Airbus H135) for helicopter training; and CT-142Q Citadel (De Havilland Canada Dash 8-400) for training air combat systems officers and airborne electronic sensor operators.
One of the first two Pilatus PC-21s departs Stans in Switzerland bound for Canada on September 14, 2026. These first aircraft mark the start of a new chapter in Canada’s Future Aircrew Training (FAcT) program. Pilatus
Paquet, the No. 431 Air Demonstration Squadron boss, said all Tutors are to be flown to IMP Aerospace in Trenton, Ontario, by March 31, 2027, where they will be disposed of. Some aircraft are expected to be preserved in museums or mounted on pedestals for public display, while others will be used as training aids for aircraft maintenance apprentices in Borden, Ontario.
“They’re not going to be flying. They’re not going to be flyable,” Paquet said.
Snowbirds team lead “Match” Hatta hopes to contribute his test-pilot experience to the transition, including testing the replacement aircraft and developing the new demonstration program.
“I would love to contribute to the team in terms of seeing them through the transition,” he said. “If I’m able to use my test background as well in helping that out, testing the new show, testing the new airplanes, and passing it on to a new boss down the road, then I’d love to do that.”
Royal Canadian Air Force CT-114 Tutor pilots with the Canadian Forces Snowbirds perform pre-flight checks during the Defenders of Liberty Air & Space Show at Barksdale Air Force Base, Louisiana, in 2019. U.S. Air Force photo by Airman Jacob B. Wrightsman
For Paquet, the immediate priority is completing the final display season without incident before turning to the next phase of the team’s history.
“I will definitely be emotional. The only thing I’m hoping for is that all the planes land safely, bring everybody home, and then we can check the box and say it was an extremely successful season. I brought everybody home, and we’ll move on to the next chapter.”
After more than six decades since its development began, the Tutor leaves behind a legacy spanning generations of military pilots and millions of spectators. Its final Snowbirds aerobatic display represents not simply the retirement of an aging aircraft, but the end of a long tradition in which the little jet trainer was one of the country’s most recognizable symbols of military flying and aerial performance.
Leonardo DRS has been heavily involved in mobile counter-unmanned aerial systems (C-UAS) efforts including the U.S. Army M-SHORAD (Maneuver Short-Range Air Defense) Increment 1 program, also known as SGT STOUT, which provides an air defense capability for ground maneuver forces against low-altitude aerial threats. The company is now preparing for the forthcoming M-SHORAD Increment 4 program, which requires a vehicle-agnostic, reconfigurable, palletized or “sled”-based air defense capability.
TWZ’s Jamie Hunter spoke in-depth with Joe Rolwes, Director of Business Development at Leonardo DRS, about how mobile air defense is evolving and the various technologies that are being employed.