Lockheed Martin has unveiled a modular airframe concept for its stealthy and combat-proven AGM-158 Joint Air-to-Surface Standoff Missile (JASSM) family that could support multiple configurations, launch methods, and sensor packages while making use of the existing JASSM and Long-Range Anti-Ship Missile (LRASM) production infrastructure. Highly survivable, the missiles are an incredibly important and staple weapon for the U.S. military, and for select export customers.

Called AGM-158 FLEX, the new concept is centered on a common airframe with interchangeable components. Lockheed Martin says it has invested more than $35 million of its funds in the effort so far, including airframe design, testing, prototype production, subsystem qualification, and work with suppliers.

The company says the FLEX design will use removable nose sections that can accommodate sensor suites associated with the AGM-158 family. A removable boat tail would allow the same basic airframe to be configured for different launch methods, including air, surface, and subsurface launch. That would open the AGM-158 architecture up to ground-, ship-, and submarine-launched applications, although Lockheed Martin has not provided details on the specific launchers, platforms, or configurations envisioned. It’s worth noting the LRASM has been tested in vertical launch configuration for vessels equipped with the Mk 41 launch system.

In addition to the Navy vertical launch tests, the idea of moving the JASSM family beyond its traditional combat aircraft launch platforms is not new. The Air Force’s Palletized JASSM concept, better known as Rapid Dragon, has demonstrated the ability to deploy JASSM-ER from palletized launchers carried inside cargo aircraft, using an expendable airdrop system. FLEX takes a different approach by building those kinds of launch options into the airframe architecture itself, with modularity supporting various launch configurations for the same basic weapon.

For aircraft-launched weapons, Lockheed Martin says FLEX will retain compatibility with current and future JASSM and LRASM launch platforms.

The company is also proposing multiple airframe lengths. A 206-inch configuration is associated with the supersized JASSM-XR, while a 168-inch version is consistent with the dimensions of JASSM-ER. Lockheed Martin says JASSM-XR will be the first configuration of the FLEX airframe.

The AGM-158 family has already grown well beyond the original JASSM. The AGM-158A is the baseline stealthy air-launched land-attack missile, with a publicly reported range of roughly 230-330 miles, while the AGM-158B JASSM-ER uses a more efficient engine and additional fuel to roughly double that reach, to around 575 miles or more.

Alongside the land-attack variants is the AGM-158C LRASM, which uses the JASSM airframe but substitutes a sophisticated imaging infrared anti-ship seeker, electronic support measures, datalink, and other capabilities, for operations against heavily defended surface combatants.

Finally, the much larger JASSM-XR is being developed with a substantially stretched fuselage to carry more fuel and a larger 1,000-pound-class warhead, with a range expected to approach or exceed 1,000 miles. This would give it a similar striking capability as the Tomahawk cruise missile, although in a stealthier package.

Beyond range and launch options, the company is pitching its new FLEX concept as a way to simplify future upgrades. Components could be replaced as they become obsolete or new capabilities become available without necessarily requiring a completely new missile design.

That approach could have an industrial-base advantage, particularly as the United States seeks to increase production of long-range weapons. Lockheed Martin says FLEX would use the existing JASSM/LRASM production line, supply chain, mission-planning infrastructure, and software ecosystem rather than establishing an entirely new manufacturing and support architecture.

The company says its JASSM/LRASM production infrastructure includes a 225,000-square-foot facility opened in 2022 with increased automation and a robotic paint line.

Notable, however, is the fact that FLEX is being proposed at a time when the U.S. Air Force is pursuing affordable mass as a key priority.

For example, as part of a slew of low-cost cruise missile offerings, the service has been moving ahead with the Extended Range Attack Munition, or ERAM, a new air-launched missile explicitly intended to provide a relatively low-cost, rapidly producible standoff weapon. The Air Force conducted a live-warhead ERAM test in January of last year, less than 16 months after the program received its initial contract, and described the weapon as a means of generating mass against fixed targets. ERAM is understood to have a range of between 150 and 280 miles, putting it below the reach of the baseline JASSM, let alone the JASSM-ER or XR.

However, the emerging class of lower-cost weapons are intended very much more to complement than compete with JASSM. While the Air Force plans to buy thousands of the cheaper missile, the JASSM will still be needed to take up the higher end of the cost and capability list.

Lockheed Martin mentions that FLEX should “unlock future cost savings,” but this sounds more about giving customers the ability to swap out components and upgrade capabilities on existing missile rounds, to avoid obsolescence, rather than facilitate mass production.

As it stands, JASSM has evolved into a family of increasingly capable and longer-range weapons, but those capabilities necessarily come with a different set of cost and production considerations than a weapon designed from the outset around large-scale production. Lockheed Martin’s announcement does not disclose a target unit cost for FLEX, nor does it explain how the eventual cost of a FLEX-derived weapon would compare with a baseline JASSM or LRASM. The unit price of the latest subvariants of the JASSM-ER is around $1.2 and $1.5 million, according to official budget documents.

The new weapon is a way of getting more variants and launch options out of the established JASSM/LRASM architecture, potentially with less development work than creating entirely new weapons. Whether that translates into enough savings or production capacity to satisfy the military’s growing demand for large numbers of standoff weapons remains to be seen.

For Lockheed Martin, the proposal also offers a way to extend the relevance of the AGM-158 family as the company and the Pentagon pursue additional range, new launch platforms, and potentially new launch methods.

The flexibility of the missile could be particularly relevant to the Agile Combat Employment concept, and the wider U.S. military in the Indo-Pacific, where forces are expected to operate from a larger number of dispersed and potentially austere locations. A common missile architecture that can be adapted to different launch platforms and different target sets could allow weapons to be positioned and employed across a distributed force rather than tying particular missile variants to particular launchers.

The original JASSM/LRASM has also become a significant export weapon, with Australia, Finland, Poland and several other U.S. allies cleared to acquire variants of the missile. While the advanced capabilities of the weapon have seen its export opportunities carefully controlled, FLEX could potentially open up the market to more customers, including less-advanced, ‘sanitized’ versions.

Lockheed Martin’s announcement provides few details on FLEX’s eventual cost, production rate, schedule, or specific performance beyond the stated airframe dimensions. For now, the concept demonstrates that the company is seeking to create a more adaptable architecture around an established missile family, one that has played a critical role in numerous operations since its introduction.

Contact the author: thomas@thewarzone.com

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New imagery shared with TWZ by Anduril shows its YFQ-44A Fury Collaborative Combat Aircraft (CCA) configured with air-to-ground weapons, underscoring the fact that the CCA could take on an air-to-ground role in the future in addition to its current air-to-air focus. Yesterday, Anduril executives revealed that the company had begun integration and fit checks for a range of air-to-ground weapons, although they confirmed to us that those weapons had not yet been flight-tested aboard Fury.

The YFQ-44A is one of two aircraft selected by the Air Force for its CCA Increment 1 program, alongside General Atomics’ YFQ-42A Vengeance. The service’s stated priority for the initial aircraft is air dominance, and Anduril says the production FQ-44 will have four external hardpoints capable of carrying four AIM-120 AMRAAM air-to-air missiles. The YFQ-44A, which currently has two underwing pylons for two AMRAAMs, has already conducted a live AIM-120 firing as part of testing with the Air Force’s Experimental Operations Unit.

The new imagery, however, points toward a substantially broader weapons envelope, with the aircraft shown carrying different air-to-ground stores on its two external stations. The weapons are shown fitted to the aircraft during a ground-based fit check, an important step in the integration process before captive-carry and, ultimately, live-release testing, if Anduril and the USAF choose to go down that route.

During a recent roundtable with reporters yesterday at the Air & Space Forces Air, Space and Cyber Symposium that TWZ is attending, Anduril’s Jason Levin, senior vice president for Air Dominance and Strike, and Erin Simpson, vice president for Strategy for Air Dominance and Strike, said the company had already begun integration and fit checks of 500-pound Joint Direct Attack Munitions (JDAM), 250-pound Small Diameter Bombs (SDB), and low-cost cruise missiles. Pods for 2.75-inch guided or unguided rockets are also seen fitted to the aircraft. In each case, the stores are mounted on a twin adaptor rack.

Furthermore, Anduril’s plans extend to testing the Fury with other air-to-air weapons and targeting pods.

Importantly, the diversity of weapons will give Fury a range of potential missions beyond high-end air-to-air combat, including counter-UAS, counter-cruise-missile, and air-to-ground or air-to-surface strike missions.

“We’ve begun integration and fit checks of a lot of other munitions,” an Anduril executive said. “We’ve done 500-pound guided bombs. We’ve done Small Diameter Bombs.”

The company said it had also begun engineering work to integrate its Barracuda 500 offering for the Air Force’s emerging low-cost cruise-missile effort.

It should be noted that giving the YFQ-44— or YFQ-42A — the ability to deliver a JDAM or SDB against a predetermined fixed target is not particularly complex. This type of austere air-to-ground capability should be relatively straightforward to add, providing a useful secondary strike function without requiring the aircraft to take on the far more demanding requirements associated with dynamic targeting or more sophisticated air-to-ground missions. This could also allow for these increment one CCAs to be used independently as air-to-ground ‘weapons trucks’ if their air-to-air assistance isn’t needed.

When the production FQ-44 arrives, it will have four hardpoints, compared with the two currently fitted to the YFQ-44A. Anduril says loading all four stations with AIM-120s for the Air Force’s air-dominance mission would reduce the range of the aircraft but would not require a larger engine or otherwise push the aircraft outside its basic takeoff, landing, climb, and flight-envelope requirements.

While the Air Force’s initial CCA requirement is heavily focused on air dominance, the same aircraft could potentially be configured for different missions by changing its external stores and sensors. Anduril is already positioning Fury as something more than a single-purpose “missile truck.”

That flexibility could become increasingly important as the Air Force considers how CCAs will be employed alongside crewed fighters. During a July Experimental Operations Unit (EOU) exercise at Creech Air Force Base, Fury flew in the same airspace as crewed fighters and other CCAs while Air Force personnel operated its Mission Autonomy system. Anduril says the aircraft has also flown in formation alongside F-35s, although the fighters were not yet controlling Fury.

The company is now working toward what it calls “quarterback integration,” in which a crewed aircraft will direct autonomous aircraft as part of a larger combat formation. Anduril says that work has already progressed through hardware- and software-in-the-loop environments and onto the aircraft itself, with live testing expected in the near term.

A Fury operating under the direction of an F-35 could potentially carry air-to-air missiles for counter-air missions, while other aircraft in the formation could be configured for strike or other effects. Alternatively, the same autonomous aircraft could be reconfigured for a different mission before being dispersed to another operating location. Having four pylons would also give the production Fury greater scope to undertake “swing-role” missions, flexing between prosecuting air and surface targets as required.

The July EOU exercise also demonstrated a rapid “hot reload” capability, with two Air Force personnel replacing an AIM-120 on a running Fury and reducing the turnaround between sorties to single-digit minutes. The demonstration was intended to show how CCAs could be rearmed and returned to the fight without the large maintenance and ground-support footprint associated with traditional combat aircraft. This will be vital as the Air Force integrates CCAs into its Agile Combat Employment concept, in which the drones can be dispersed across multiple operating locations rather than relying on a single large ground footprint.

Also speaking yesterday at the Air & Space Forces’ Air, Space and Cyber Symposium was Air Force Chief of Staff Kenneth Wilsbach, who confirmed that the service hasn’t necessarily made any decisions on Increment 2 of the CCA program yet, but it could include air-to-ground capabilities.

“We’re going through some thought processes about what Increment 2 should be able to do. Increment 1 is air-to-air, so do we want air-to-ground? Maybe, maybe not. Do we want it to have more sensors? Do we want it to be a lot cheaper? Do we want it to be more attritable or expendable, or do we want it to be more exquisite? Do we want shorter range or longer range? Do we want something that can be dropped from another platform, or does it take off and land by itself?”

“These are all considerations,” Wilsbach continued. “It’s still a bit early to make any definitive decisions on that, especially before we really get our hands on the current Increment 1 aircraft and learn from them.”

It’s also important to note that export customers for Fury may demand an air-to-ground capability set, especially if they will only be buying a limited number of CCA types. Having this option ready to go is relevant to prospects beyond the U.S., which are certainly growing.

Fury’s air-to-ground weapons work is part of a broader effort to make the aircraft a flexible combat system rather than simply an uncrewed air-defense adjunct for crewed fighters. The Air Force’s immediate priority may be air dominance, but the weapons integration underway suggests that the same four hardpoints could eventually support a much wider range of missions. This weapons flexibility could ultimately be central to the broader CCA concept, especially as the Air Force works out what it wants Increment 2 to deliver.

Contact the author: thomas@thewarzone.com

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Anduril’s YFQ-44A Fury Collaborative Combat Aircraft (CCA) has already flown in formation alongside F-35 fighters during U.S. Air Force testing, company executives have revealed, offering the clearest indication yet that live manned-unmanned teaming work with the fifth-generation fighter is underway.

The disclosure came during a briefing by Anduril executives Jason Levin, senior vice president for Air Dominance and Strike, and Erin Simpson, vice president for Strategy for Air Dominance and Strike, at the Air & Space Forces Air, Space and Cyber Symposium that TWZ is attending. The executives said the Fury flew alongside F-35s during a July exercise conducted with the Air Force’s Experimental Operations Unit (EOU) at Creech Air Force Base, Nevada. You can read more about that event in our past reporting here.

“We’ve already started flying in formation alongside crewed. I can even say fifth-gen fighters. F-35,” Levin said.

The testing is an important step toward the Air Force’s broader vision for its Collaborative Combat Aircraft program, in which relatively inexpensive autonomous aircraft are intended to operate alongside and support crewed fighters in contested airspace.

The executives stressed, however, that the F-35 was not yet controlling the Fury during those flights.

“But they’re not controlling it from the crewed fighter yet,” Levin said. “Not yet.”

Instead, the July testing involved Fury operating under its Mission Autonomy system while sharing airspace with crewed fighters, other CCAs, and other aircraft. Anduril says Air Force personnel were able to operate the autonomy system without Anduril personnel directly running the aircraft, although company personnel remained on site in a supporting role.

The company described the progression toward direct manned-unmanned teaming as a “crawl, run, build-up” process.

Anduril says it has already begun work on what it calls “quarterback integration,” referring to the ability for a crewed aircraft to direct or task autonomous aircraft. That work has been conducted in hardware-in-the-loop and software-in-the-loop environments as well as on the Fury itself.

“Most of those events will be coming up here in a matter of weeks or months,” Levin said when asked about the timeline for the first quarterback integration with Fury.

Asked whether those events would involve live flying, the answer was unequivocal: “Yes.”

Exactly how an F-35 would control Fury remains part of that ongoing development effort. The executives pointed to work involving integration of the appropriate human-machine interfaces, primarily including tablet-based control from the crewed fighter, at least at first.

The distinction between flying alongside an F-35 and being controlled by an F-35 is important. The former demonstrates that Fury’s aircraft and autonomy systems can operate safely in the same battlespace as a fifth-generation fighter. The latter would represent a much more significant demonstration of the operational concept behind CCAs: allowing a single crewed fighter to employ and manage additional autonomous aircraft as part of a larger force.

Anduril’s July testing went beyond simple formation flying. The company said Fury was conducting Mission Autonomy flights using live sensor data and was operating in airspace shared with crewed fighters and other CCAs. Air Force operators reportedly conducted both relatively basic route and pattern work and more representative tactical scenarios.

The Fury’s work with the Air Force’s Experimental Operations Unit has progressed through two increasingly ambitious phases. During the first exercise in April at Edwards Air Force Base, Air Force personnel were trained to operate the aircraft and were able to launch and recover it using Anduril’s compact Menace-T setup, essentially a pair of ruggedized cases and a laptop rather than a conventional ground-control station.

By the second exercise, conducted at Creech in July, the Air Force had reduced the manpower and infrastructure required further. A single EOU operator could launch and recover the aircraft after only hours of training, while Air Force personnel independently operated Fury’s Mission Autonomy. The aircraft also flew in airspace shared with other CCAs, while the exercise demonstrated disaggregated operations and a rapid “hot reload” in which two operators replaced an AIM-120 AMRAAM with the engine running, reducing the turnaround between sorties to single-digit minutes.

The July exercise also included a live weapons demonstration that Anduril characterized as a complete end-to-end kill chain rather than simply a captive-carry or basic weapons-release test. The Fury launched from Edwards with a single operator and received a track generated by an external source over a beyond-line-of-sight connection. That track was ingested by Anduril’s Lattice AI-infused autonomy software system, after which the operator tasked the aircraft to engage. Fury then launched an AIM-120 AMRAAM and guided the weapon to the target. Anduril described the test as demonstrating the complete kill chain from offboard targeting information, through the aircraft’s mission systems and operator tasking, to an actual air-to-air weapons engagement.

New test footage: first missile shot from YFQ-44A.

YFQ-44A executed an end-to-end, beyond-line-of-sight strike against a simulated target.

The test, executed out of @EdwardsAFB, represents an important step in turning CCA into an operational capability. pic.twitter.com/70cRIs6uXJ

— Anduril Industries (@anduriltech) July 15, 2026

On the weapons side, the production FQ-44 is being designed around four external hardpoints, allowing it to carry four AIM-120 AMRAAMs for the Air Force’s primary air-to-air mission set. Currently, the demonstration aircraft can carry two. Regardless, the company is also pursuing a much broader weapons portfolio for Fury. Executives said they have already begun integration and fit checks for 500-pound guided bombs, Small Diameter Bombs, low-cost cruise missiles — including Anduril’s Barracuda 500 offering — other air-to-air weapons, rocket pods and targeting pods. Those integrations are intended to give Fury options beyond air-to-air combat, including counter-drone, counter-cruise-missile and air-to-ground/air-surface strike missions. Anduril stressed that these are currently integration and engineering efforts rather than claims that all of those weapons have been flight-tested from Fury. The company also said additional sensors, such as a targeting pod, could be added for some of those missions.

The executives acknowledged that some of the more advanced tactical capabilities remain under development and are being explored extensively in simulation. Those efforts include areas such as sensor fusion, track discrimination and tactical engagements.

The ultimate objective is an aircraft that does not require a large ground-control infrastructure or a dedicated operator for every individual sortie. As previously noted, during the July exercise, Anduril says a single Air Force operator was able to launch and recover a Fury after only hours of training, while other Air Force personnel operated the aircraft’s Mission Autonomy functions.

That same exercise also demonstrated what Anduril described as “disaggregated operations,” with personnel at multiple locations able to operate the same aircraft. The concept is intended to support an Agile Combat Employment-style approach in which CCAs can be dispersed across multiple operating locations rather than relying on a single large ground footprint.

The company has since delivered a Fury aircraft to the Air Force’s EOU at Creech, making it the first CCA to be permanently delivered to the unit, according to Anduril. The service is now flying the aircraft multiple times a day with what the company said is a very limited Anduril presence.

Meanwhile, Anduril says assembly of Fury airframes has already begun at its Arsenal facility, with production aircraft expected to begin coming off the line early next year. The company says it has built the facility and supply chain around a potential production rate of 150 aircraft per year, although that figure is a planned capacity rather than an existing Air Force order. Anduril executives said the company has already advanced procurement of long-lead items and worked with its Tier 1, 2 and 3 suppliers to support that rate, while also examining additional production lines. They emphasized that the current Air Force pricing is based on a substantially lower annual buy than 150 aircraft, but said the Fury’s unit cost is well below $20 million at the quantities currently contemplated. The company also says the production line is designed for relatively rapid reconfiguration, allowing capacity to be shifted between products in weeks rather than the months or years associated with more traditional aircraft production facilities.

Earlier this year, the Air Force awarded contracts for the production of FQ-44A Fury and General Atomics FQ-42A Dark Merlin drones — the latter has now been formally named Vengeance. This sets the service up to operate a split initial fleet of CCAs. As you can read about here, the Air Force is now aiming to have at least 500 CCA in service by 2032, a substantial step up from earlier plans, with the USAF having previously talked about acquiring “over” 150 of these drones by the end of the decade. The 500 target will likely include upcoming increment two CCAs, as well, the requirements of which the Air Force is still working on.

For Anduril, the next major milestone should go far beyond simply putting a Fury and an F-35 in the same formation, demonstrating that a crewed fifth-generation fighter can actually command and employ the autonomous aircraft as part of a live mission.

If Anduril’s timeline holds, that testing could begin relatively soon.

Contact the author: thomas@thewarzone.com

The post Anduril’s YFQ-44A Fury CCA Has Flown Alongside F-35s appeared first on TWZ.

Debris from a Chinese-made ballistic missile found in Yemen could have inadvertently revealed a previously undisclosed addition to Saudi Arabia’s secretive ballistic missile arsenal. Imagery circulating online appears to show the wreckage of a Chinese DF-15A short-range ballistic missile (SRBM), potentially marking the first known Saudi combat use of a weapon in this class, although both the identification and ownership remain unconfirmed.

The booster stage of a Chinese-made DF-15A (Dong Feng-15A) ballistic missile operated by Saudi Arabia fell in Raghwan District, Marib Governorate, northern Yemen. pic.twitter.com/dfSXMOiCzQ

— OSINTWarfare (@OSINTWarfare) September 14, 2026

It is also unclear what happened to the missile itself. The debris suggests a stage separation or the missile broke apart or crashed before reaching its target. The Houthis are not known to possess any weapons that could have intercepted it.

The development comes amid a sharp escalation in the long-running Saudi-Houthi conflict. After years of relative de-escalation following the 2022 truce, fighting has intensified in recent weeks as Houthi forces have dramatically overrun Saudi-backed Yemeni government positions, including around strategically important Marib and Taiz. The Houthis have also escalated missile and drone attacks against southern Saudi Arabia, targeting military and energy infrastructure while threatening the kingdom’s ability to move oil through the Red Sea. The group has declared the Bab el-Mandeb closed to Saudi oil traffic, adding a direct threat to one of Riyadh’s critical energy-export routes.

You can catch up with our latest coverage of the fighting here.

As for the DF-15, also known by its NATO designation CSS-6, this is a road-mobile, solid-fueled SRBM developed by China during the 1980s. The system formed part of Beijing’s effort to develop a new generation of conventionally armed mobile ballistic missiles, including systems primarily intended for export.

العثور على بقايا صاروخ صيني من طراز DF-15A في اليمن. pic.twitter.com/af9mGNNxiA

— إيران بالعربية (@iraninarabic_ir) September 14, 2026

As you can read about here, the DF-15 family has evolved through several variants, although open-source information concerning their capabilities remains inconsistent.

The DF-15A reportedly entered Chinese service in the mid-1990s. Estimates of these missiles’ maximum range vary substantially, from roughly 600 kilometers (373 miles) for the original DF-15 to as much as 900 kilometers (559 miles) for later versions.

China is the only confirmed operator of the DF-15 family. There have been longstanding reports of Chinese transfers of the DF-15 or the related M-9 export version to Egypt, Iran, Pakistan, and Syria, but in each case, the export record is heavily disputed, with some reports likely conflating the DF-15 with the broadly similar DF-11.

While Saudi Arabia has never publicly acknowledged operating the DF-15 family, it has a well-established history of acquiring Chinese ballistic missiles.

In 2013, Prince Fahd bin Abdullah bin Mohammed, Deputy Minister of Defense, visited the Strategic Missile Forces of Saudi Arabia, and was given this model. YEARS of speculation on the smaller missiles (The large is DF-3). Now we know – they are DF-15 and DF-15A. pic.twitter.com/oOn8qiCgye

— Tal Inbar (@inbarspace) September 14, 2026

Saudi Arabia imported Chinese ballistic missiles to expand its long-range strike options. Its desire for a land-based strategic deterrent was initially driven by concerns over Iran, regional missile proliferation, and nuclear hedging. More recently, however, it shifted toward fielding more accurate, mobile systems with greater conventional military utility.

Riyadh secretly obtained DF-3A missiles from China beginning in the late 1980s, establishing a strategic ballistic-missile capability that remained largely outside public view.

The kingdom has also subsequently been linked to the DF-21 family. Satellite imagery and other open-source intelligence have provided evidence of Chinese-designed ballistic-missile infrastructure in Saudi Arabia.

While the Houthis have their own ballistic-missile arsenal, this is principally associated with Iranian technology, captured Yemeni systems, and locally produced or modified weapons.

Saudi employment of an SRBM in the current fighting would represent a notable expansion of the kingdom’s response options. If Saudi Arabia did indeed do this, its main advantage would be speed and responsiveness. A solid-fueled ballistic missile could reach targets deep inside Yemen within minutes while keeping Saudi aircraft and crews out of the immediate engagement area, providing Riyadh with a rapid strike option against fixed Houthi targets. That could be particularly valuable as the conflict expands and Saudi forces face pressure to respond quickly to Houthi attacks on military and energy infrastructure.

Previous losses at the hands of Houthi ground-based air defenses could also dissuade Riyadh from relying on crewed aircraft to strike targets on the ground deep inside Yemen. Houthi air defenses, while pathed together in many ways, are capable enough to give even U.S. airpower a serious run for their money.

At the same time, a conventional SRBM like the DF-15A can deliver a large warhead at very high speed, imparting significant kinetic energy, making it particularly useful against fixed, high-value, or hardened targets.

Use of an SRBM would also be in line with the current pattern of escalation, with the Houthis conducting missile and drone attacks against Saudi military and energy targets while Saudi-backed Yemeni forces are engaged in renewed ground fighting. Riyadh’s demonstration of an SRBM capability in this campaign would also signal that it is is willing to draw more heavily on its strategic missile inventory as the conflict intensifies, potentially further raising the stakes of the confrontation.

Such a move would carry a message beyond Yemen. Using a previously unacknowledged ballistic missile capability in combat would signal to Iran that Riyadh is now willing to employ this arsenal, after decades of keeping it very much in the shadows.

If the evidence ultimately points to a Saudi DF-15A launch, the discovery would offer a rare look at the operational use of an extremely secretive part of the kingdom’s arsenal, and add a significant new dimension to the rapidly escalating Saudi-Houthi war.

Contact the author: thomas@thewarzone.com

The post Saudi Arabia Appears To Have Used Its Secretive Stash Of Ballistic Missiles For The First Time appeared first on TWZ.

France is accelerating work on the Rafale F5 standard, bringing forward development of a major new configuration of its combat aircraft at a time when the country’s planned next-generation fighter with Germany has effectively collapsed in its original form. The contracts cover the equipment judged to have the highest technical risk, ahead of the overall development contract for the F5 standard, expected for the end of this year.

The French defense procurement agency, the Direction générale de l’armement (DGA), ordered the first upstream development work for F5 from Dassault Aviation, Thales, MBDA, and Safran. The contracts cover key areas including navigation, datalinks, radar, electronic warfare, and propulsion, laying the groundwork for the next configuration of the Rafale, which is planned to enter service with the French Air and Space Force and the French Navy starting around 2033.

#Commande | Rafale F5

La DGA commande les 1ers travaux en amont du prochain lancement en réalisation du standard F5 du Rafale

Ils concernent notamment :
la centrale inertielle
le moteur
le radar
la suite d’autoprotection de l’avion
pic.twitter.com/n3uhBYqIvi

— Direction générale de l'armement (@DGA) September 9, 2026

The most extensive modernization of the Rafale yet, the F5 standard was originally part of a longer transition toward France’s next-generation combat-air capability. But with the Franco-German New Generation Fighter (NGF) effort now effectively dead in its original configuration, the accelerated F5 program is taking on a much larger strategic role.

Rather than simply keeping the Rafale relevant until NGF arrives, France is now developing a version of the aircraft that is set to carry much of the country’s high-end combat-air capability well into the 2030s and potentially beyond.

The increasingly capable F5 could, in turn, reduce the urgency of finding a replacement for the Rafale — while potentially adding to the fighter’s export appeal. After a slow start, Dassault has recorded export sales of 299 new-build Rafales to eight nations.

The DGA’s contracts engage four of France’s principal combat-aircraft industrial players. Dassault Aviation remains responsible for the aircraft and its overall integration; Thales is involved in major sensor, electronic warfare, and communications capabilities; MBDA is responsible for much of the weapons system; and Safran is responsible for propulsion.

Previous Rafale standards have largely consisted of incremental upgrades, focusing on software and other improvements to the existing aircraft configuration. F5 is notably more extensive, addressing many of the critical systems that determine how the aircraft senses the battlespace, communicates with other platforms, conducts electronic warfare, and generates the power needed to operate increasingly demanding equipment.

The DGA has specifically identified the Thales RBE2-XG radar as one of the major technological advances associated with F5.

The RBE2-XG is expected to feature gallium nitride (GaN) semiconductors. Compared with previous technology, GaN generates less heat and has the capacity to operate at higher voltages, meaning that output power can be increased, while component size can be reduced. Overall, using GaN should help to get more power out of the radar without increasing its size.

According to the DGA, “This new radar will benefit from a substantial increase in power, and consequently in detection range, as well as improvements in the identification of targets with an extremely low radar cross-section (RCS). Its computing capabilities will also be enhanced to facilitate the integration of artificial intelligence.”

The RBE2-XG will also be “designed with collaborative combat in mind, featuring sensors capable of working together without the need for pilot intervention.” It is also planned to have enhanced resilience, including against cyber threats.

France is already working on the concept of a combat drone to accompany the Rafale, with the future F5 standard providing the crewed aircraft around which those systems can operate.

The new radar will be combined with more capable electronic warfare equipment, improved communications and datalinks, expanded processing capacity, and a more capable propulsion system.

To be developed by MBDA and Thales, the forthcoming F5 version of the SPECTRA self-protection suite is intended to significantly improve detection and jamming capabilities, the DGA says, “through a fully digital approach, enabling a complete overhaul of the core electronic warfare system to counter the increasing density and broadening of the threat spectrum, as well as the growing complexity of threat waveforms, expected by 2035.”

Thales will also be responsible for the new Inter-Vehicle Data Link (IVDL) system, described as a “stealthy and resilient datalink.” The DGA says the new datalink will expand connectivity “thanks to a new high-speed, discreet, and jamming-resistant waveform. IVDL will allow the Rafale to penetrate hostile areas where jammers are widespread, while maintaining optimal quality of communication and dialogue between aircraft.”

Safran will begin preliminary design work on the M88 T-Rex engine, which is planned to increase the turbofan’s thrust from around 16,500 pounds to nearly 19,850 pounds, an increase of roughly 20 percent.

In terms of armament, the contract announcement mentions the ASN4G missile, set to be introduced to service by 2035, which will allow the Rafale F5 to continue to serve as the airborne nuclear component. The munition remains in the early stages of development, but it will be capable of hypersonic speeds — defined as speeds greater than Mach 5 — with a range in excess of 1,000 kilometers (621 miles).

Other likely new missiles include a beyond-visual-range air-to-air missile to succeed the current Meteor. As you can read about here, France’s Comet program, apparently led by the French side of MBDA, is already looking into this requirement, with an apparent plan to introduce the weapon around 2030.

An older video from MBDA showing some of the company’s weapons integrated on earlier versions of the Rafale:

For France, the original logic behind the pan-European FCAS program was that Rafale would eventually give way to the NGF as its principal crewed combat aircraft, operating from land bases and aircraft carriers.

With the collapse of the Franco-German effort, France cannot simply wait for a next-generation fighter program whose industrial and political future is uncertain. Instead, the Rafale has to remain capable against rapidly evolving threats throughout the 2030s and beyond.

With the F5 standard, however, France is looking to incorporate some of the concepts envisaged for NGF. These include distributed architectures in which crewed fighters, uncrewed aircraft, remote carriers, missiles, and offboard sensors cooperate across a battlespace.

A highly upgraded Rafale operating as the crewed controller of uncrewed combat aircraft and remote weapons could perform some of the missions that France originally expected from NGF.

For now, F5 also sidesteps the central problem in the now-defunct Franco-German effort: whether the two countries could agree on the requirements, industrial structure, and workshare behind a new-generation combat aircraft.

Despite its advances, the F5 airframe remains derived from a design dating back to the 1980s, which first entered French service in the early 2000s. In particular, it falls well short of fifth-generation designs — let alone sixth-generation ones — in terms of low observability. This is one area where collaborative drones could potentially help compensate for the Rafale’s inherent limitations.

France has therefore bought itself some time with the F5 program. But it may eventually decide that it needs a future high-end crewed fighter to provide capabilities that an upgraded fourth-generation airframe cannot fully replicate, particularly in terms of survivability against advanced integrated air-defense systems, signature reduction, internal weapons carriage, and operations deep inside heavily contested airspace.

On an industrial level, F5 is also significant because it brings together the same French industrial heavyweights that would have formed the backbone of its FCAS effort. Dassault Aviation, Thales, Safran, and MBDA are now well-positioned to work together on whatever comes after F5, whether that is a crewed combat aircraft, uncrewed CCA-type platforms, or a combination of both. Based on its experience with the nEUROn program, France would be well placed to develop a UCAV that can work cooperatively as well as independently, taking over the deeper-penetrating fighter mission set, and potentially skipping a sixth-generation fighter altogether.

https://www.youtube.com/watch?v=frNsu7g7r94

Meanwhile, success with F5 — and, in particular, with the wider combat ecosystem planned around it — could put France in an even stronger position when it comes to any future European fighter project.

For the time being, Britain, Italy, and Japan are pursuing the GCAP/Tempest pathway toward a new combat aircraft. Germany and Spain remain tied to the wider FCAS architecture, even as the original Franco-German NGF arrangement has fractured. Sweden’s position is less clear, with indications that it could collaborate with either France or Germany.

France, for its part, is now investing heavily in an increasingly sophisticated Rafale architecture while maintaining its own sovereign industrial base.

In terms of acqusition, France is expected to pursue a mixed approach, buying new-build Rafales while upgrading suitable aircraft already in service to the F5 standard. The oldest jets are unlikely to receive the full F5 treatment, however.

The irony is that the failure of the NGF effort may ultimately make Rafale F5 more important — and potentially more capable — than it was ever expected to be.

Contact the author: thomas@thewarzone.com

The post France Accelerates Rafale F5 Upgrade After Collapse Of FCAS Next-Gen Fighter Project appeared first on TWZ.

Ukraine has unveiled a new domestically developed surface-to-air missile system designed to turn a diverse collection of air-to-air missiles into a flexible ground-based air defense capability. Called Shershen, Ukrainian for hornet, the system combines a locally-developed command-and-control architecture, a dedicated surveillance radar, and multiple launchers that can employ both Ukrainian and Western missiles.

The system was displayed at the MSPO defense exhibition in Kielce, Poland, by the National Association of Ukrainian Defense Industries (NAUDI). The example shown is reportedly the second operational prototype and is described as being close to its production configuration.

At the ongoing MSPO-2026 defense and industrial exhibition in Poland, the launcher of the Ukrainian Shershen air defense system, developed by Radionix, has been presented for the first time, along with the R-120K surface-to-air guided missile specially developed for it (second… pic.twitter.com/5RfZWHWuxl

— 𝔗𝔥𝔢 𝕯𝔢𝔞𝔡 𝕯𝔦𝔰𝔱𝔯𝔦𝔠𝔱 (@TheDeadDistrict) September 9, 2026

The appearance of Shershen comes as Ukraine continues to develop an increasingly diverse family of indigenous air defense systems, while simultaneously adapting older missiles and foreign-supplied weapons to address a severe shortage of interceptors.

That effort has produced some distinctly unconventional combinations. Ukraine’s so-called FrankenSAM programs have paired existing Soviet-era launchers and radars with Western missiles, while other systems have adapted Soviet R-73 air-to-air missiles for ground launch. The United Kingdom and Denmark have also worked with Ukraine on the containerized Gravehawk system, another concept built around repurposed air-to-air missiles.

Shershen takes that philosophy a step further by making missile interchangeability a central feature of the system.

The Shershen battery consists of a Perun command-and-control vehicle, an Athena radar, and four Borei launchers.

According to the developer, the system’s architecture is deliberately open. This allows it to use different missiles from different manufacturers and also permits the integration of third-party surveillance and guidance radars.

The company says Shershen can currently employ the R-27 (AA-10 Alamo), R-73 (AA-11 Archer), AIM-9 Sidewinder, and AIM-132 ASRAAM, while compatibility with the R-60 is also being explored. These weapons come with a mix of semi-active radar or infrared homing seeker heads.

Air-to-air missiles are already available in considerable variety across Ukraine’s arsenal and those of its foreign partners. Being able to employ several types from a common ground-based system provides much more flexibility than a conventional SAM designed around one dedicated interceptor.

It also offers a way to exploit missiles that were never originally intended to be fired from the ground. That means Shershen’s launcher and fire-control system are meant to be interceptor agnostic, at least to a certain degree.

Shershen’s Athena radar is reported to be capable of detecting targets at ranges of up to 85 kilometers (53 miles).

In terms of the engagement envelope, Shershen is claimed to be capable of engaging aircraft, cruise missiles, and drones at ranges of up to 25 kilometers (16 miles) and altitudes of up to 10,000 meters (32,800 feet). Clearly, these figures will vary widely depending on the type of interceptor.

When employing radar-guided missiles, the system’s engagement architecture can reportedly guide as many as six missiles simultaneously.

The advertised performance figures have not been independently verified, and it remains unclear what target types and engagement conditions were used to establish them.

Україна представила складові мультикаліберного зенітного ракетного комплексу «Шершень» на міжнародній виставці MSPO 2026 у польському місті Кельце.

Міжнародний консорціум компаній Shershen Group, який створює ЗРК в інтересах України представив, показав командний пункт,… pic.twitter.com/9wAS7ewxzg

— Мілітарний (@mil_in_ua) September 10, 2026

The developer says the second prototype has completed initial testing, including successful interceptions at a test range.

One of the Borei launchers displayed at MSPO were armed with an R-120K, a new Ukrainian missile equipped with a radar seeker and is intended to be capable of both air-to-air and surface-to-air employment.

The R-120K remains under development, however. Work is reportedly continuing on its rocket motor, meaning that its eventual performance and production status remain uncertain. Still, having the option of including the R-120K on the Shershen system in the future is significant.

Rather than relying indefinitely on stocks of Soviet and Western air-to-air missiles, Ukraine could eventually have a domestically produced interceptor specifically tailored to its growing family of ground-based air-defense systems. That will become increasingly important as stocks of legacy missiles are depleted. Earlier this year, it was reported that Ukrainian F-16s were running low on their air-to-air missiles, which include the same AIM-9s that are used in some FrankenSAM systems, as well as being compatible with Shershen. But even before that, it was clear that Western-supplied missile stocks in Ukraine across the board were diminishing, in some cases drastically, with critical interceptors like the AMRAAM and Patriot being badly affected.

Ukraine’s need for additional surface-to-air missiles has become increasingly acute during the full-scale war, especially as Russian drone and missile barrages have stepped up.

The shortage has encouraged Ukraine to pursue a combination of indigenous development and unconventional adaptations.

The FrankenSAM initiative, conducted with U.S. support, demonstrated how existing Ukrainian systems could be combined with foreign missiles to rapidly create additional air-defense capacity. Ukraine has also fielded modified Osa systems armed with R-73 air-to-air missiles rather than their original 9M33 interceptors. Other R-73-based concepts have even been demonstrated aboard Ukrainian uncrewed surface vessels.

Shershen appears to reflect the next logical step in that evolution: rather than creating a one-off FrankenSAM combination, build an architecture from the outset that can accept multiple missiles. Additionally, with so many different ground-based air defense systems now being fielded, it comes with the significant advantage of a standardized launcher and control interface that can accommodate a range of interceptors.

At the same time, Ukraine is pursuing substantially more ambitious indigenous SAM projects.

Earlier this year, a previously secretive Ukrainian missile identified as the Koral made what appeared to be its first public appearance. The program dates back to at least 2021, when Ukraine’s Luch design bureau presented a concept for a medium-range surface-to-air missile.

Koral is intended to provide a much longer-range capability, potentially filling some of the gap left by Ukraine’s aging Soviet systems and supplementing the Western-supplied Patriot and SAMP/T.

Shershen, by contrast, is clearly focused on the short-range layer.

Together, the programs illustrate the breadth of Ukraine’s emerging domestic air-defense effort: from relatively inexpensive systems built around repurposed air-to-air missiles to new, purpose-designed interceptors intended to replace or augment Soviet-era systems.

Ukraine’s experience with FrankenSAM has demonstrated the value of getting unconventional air defense combinations into service quickly.

Once fielded, Shershen, with its architecture capable of accepting different Soviet-origin and Western-made interceptors, and eventually a Ukrainian one, gives Ukraine another way to stretch its missile inventory and enhance its air defense capabilities.

Contact the author: thomas@thewarzone.com

The post Ukraine’s New Shershen SAM Can Fire A Wild Mix Of Adapted Air-To-Air Missiles appeared first on TWZ.

The Oregon Air National Guard’s 142nd Wing has taken another significant step toward turning the F-15EX Eagle II into a true multirole fighter, conducting the first live-bomb drops from operational F-15EXs during training at Nellis Air Force Base, Nevada. The milestone came during a roughly three-week deployment to Nellis in late August and early September in support of the U.S. Air Force’s Weapons Instructor Course (WIC).

Photographs released by the Air National Guard yesterday show F-15EXs from the 142nd Wing carrying live bombs on the flight line and departing Nellis with the weapons loaded. Official imagery shows the jets armed with a single 500-pound Mk 82 freefall bomb on the fuselage centerline, while spotters also captured F-15EXs carrying a 2,000-pound Mk 84 freefall bomb in the same position.

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The 142nd’s F-15EXs are only now acquiring a capability that was deliberately absent from the wing’s previous F-15C fleet. The Portland, Oregon-based unit was an air-superiority organization when it operated the F-15C, while the F-15EX is ultimately derived from the F-15E Strike Eagle and has considerably more inherent multirole potential.

As we reported in July, the wing had already begun laying the groundwork for this transition. In May, 142nd personnel traveled to Mountain Home Air Force Base, Idaho, where they loaded and dropped inert BDU-50 and BDU-56 training bombs from their F-15EXs. Those weapons replicate the size and weight of 500-pound-class Mk 82-series and 2,000-pound-class Mk 84-series bombs. Over 10 missions, the crews dropped 24 BDU-50s and 12 BDU-56s.

While the F-15EX had already been tested in an air-to-ground role by the Air Force’s test community, the Mountain Home deployment was the first time an operational Eagle II unit had loaded and dropped bombs. The next step, the wing said at the time, would be live weapons employment at Nellis.

The Air Force has emphasized that the F-15EX’s primary mission remains defensive and offensive counter-air, particularly in the homeland-defense role. At the same time, the service’s plans call for the aircraft to provide combatant commanders with strike packages capable of operating in contested environments.

The F-15EX is inherently well suited to such a mission. Derived from the Strike Eagle lineage, it combines that aircraft’s large payload capacity and long range with substantially modernized avionics and electronic warfare systems. The aircraft’s design leaves considerable room for additional weapons and mission equipment, making an expansion into air-to-ground operations relatively straightforward compared with trying to add that capability to the F-15C.

The 142nd has been building the institutional knowledge required to make that transition. Three of its pilots underwent a nine-month course covering the science, tactics, and procedures associated with air-to-ground weapons employment before returning to help establish the wing’s training program. Weapons personnel also traveled to Nellis earlier this year to work with F-15Es assigned to the 59th Test and Evaluation Squadron and become certified in bomb loading procedures.

As well as teaching pilots how to release a weapon, the wing had to develop an entirely new air-to-ground training pipeline for pilots, maintainers, and weapons personnel at a unit that had not previously operated an aircraft with an operational bombing mission.

Nellis is home to the Air Force’s Weapons School and is central to the Weapons Instructor Course, making it one of the most important locations in the service for developing and evaluating advanced tactics. The 142nd’s participation therefore places its emerging F-15EX air-to-ground capability in an environment specifically focused on integrating advanced weapons, tactics, and mission planning.

The wing’s new live bomb-dropping capability also comes as the Air Force continues to explore how broadly the Eagle II can be employed.

Test and evaluation units have already demonstrated that the aircraft can accommodate sophisticated air-to-ground weapons. Earlier this year, an F-15EX from the 85th Test and Evaluation Squadron participated in a munitions-load training event at Kadena Air Base in Japan, where Air Force personnel practiced loading live GBU-53/B Small Diameter Bomb IIs onto the aircraft.

The F-15EX is also capable of carrying the conformal fuel tanks used by the F-15E, which can provide additional fuel as well as additional weapons stations. The operational F-15EXs delivered to the 142nd have so far been seen without CFTs, however, and the status of the plan to equip the Oregon aircraft with them remains unclear.

CFTs could become increasingly important if the Air Force moves toward more demanding air-to-ground missions for the Eagle II, particularly those requiring substantial weapons loads and long-range operations.

Another unresolved question is how the Air Force will ultimately crew F-15EXs when they are performing more complex multirole missions.

The Eagle II retains the F-15E family’s two-seat cockpit, although the Air Force’s initial operational concept has generally involved flying the aircraft with a single pilot. That leaves an unused cockpit that could potentially become an important asset as the mission set expands.

Former 142nd Wing commander Col. Michael Kosderka previously told TWZ that the addition of a weapons systems officer or other specialist in the rear cockpit could open the door to more air-to-ground capabilities.

“We can start talking about putting all kinds of air-to-ground capabilities into the airplane, potentially putting WSOs or other experts in the backseat as well to have us do any number of multi-role capabilities that it’s just physically not possible to in the C model,” Kosderka told TWZ in an interview back in 2024. “So the X has tremendous growth capability. It’s really exciting.”

Two crew would be particularly relevant to complex strike missions, where managing sensors, weapons, communications, electronic warfare, and other mission systems can place substantial demands on a single pilot. As we have discussed in the past, a back-seater would also be highly beneficial for the emerging drone controller role.

The Weapons School has also been associated with developing two-seat F-15EX operations, indicating that the second cockpit’s utility is already being considered at the tactical-development level.

For now, it would be premature to characterize the F-15EX as an operational replacement for the F-15E Strike Eagle in the air-to-ground role. The 142nd’s newly demonstrated bombing capability remains part of an ongoing training and development process.

Meanwhile, the Air Force is preparing to field substantially larger numbers of F-15EXs. Beyond the 142nd, additional Guard units are planned to receive the type, in California and Louisiana, as well as Michigan.

The Air Force has announced plans to base F-15EXs at Seymour Johnson Air Force Base, North Carolina, where they will eventually replace older F-15Es, which, in turn, are slated to move to Whiteman Air Force Base, Missouri, as part of a broader realignment of the Eagle fleet.

Another two active-duty F-15EX squadrons are slated to replace the former F-15C force at Kadena. The first F-15EX for permanent assignment at Kadena recently departed Boeing’s St. Louis, Missouri, facility for the 142nd Wing, where it will undergo final preparations before its eventual deployment to sprawling Okinawa.

The operational implications of the air-to-ground training therefore extend well beyond Portland.

The Eagle II’s generous weapons payload, long range, modern sensors and electronic warfare systems, and ability to carry both air-to-air and air-to-ground weapons give the Air Force a platform that can potentially perform several missions without sacrificing the characteristics that make the F-15 attractive for homeland defense and counter-air operations. The same characteristics are also extremely relevant to any export operator, which would expect to operate the Eagle II in a multirole capacity.

As well as a weapons-training milestone, the first live-bomb drops by the 142nd Wing provide more evidence that the F-15EX’s mission is continuing to evolve.

Contact the author: thomas@thewarzone.com

The post Operational F-15EXs Drop Live Bombs For The First Time appeared first on TWZ.