Land Defense News

Thales and Hanwha Aerospace are moving to integrate Hanwha’s Chunmoo guided rockets and missiles with the French X-Fire multiple launch system, Hanwha announced on June 19, 2026, giving European forces a potential road-mobile precision strike option reaching up to 290 km. The agreement signed at Eurosatory 2026 matters because it could expand NATO’s long-range fires capacity at a time when missile stocks, launcher mobility, and industrial depth are central to sustained land warfare.

The planned integration links the Thales-Soframe X-Fire launcher with Hanwha’s CGR-080 guided rocket, CTM-MR medium-range missile, and CTM-290 tactical ballistic missile. This would give the French system a layered strike package from 30 km to 290 km, improving its ability to hit targets from tactical depth to operational rear areas while strengthening Europe’s push for more survivable and scalable firepower.

Related topic: X-Fire Multiple Launch System Supports Europe's Return to Long-Range Deep Fires.

Thales and Hanwha Aerospace signed an MoU at Eurosatory 2026 to integrate Chunmoo guided rockets and missiles with the French X-Fire multiple launch system, potentially giving European forces a mobile precision-strike capability from 30 km to 290 km (Picture source: Army Recognition Group).

The technical center of the agreement is the Chunmoo ammunition family, which is already structured around modular launch pods rather than a single fixed munition. Hanwha’s CGR-080 is a 239 mm GPS/INS-guided rocket with a range of 30 to 80 km, a high-explosive warhead, six rounds per pod and a stated circular error probable of 15 m. In a two-pod launcher configuration, that gives a vehicle up to 12 guided rockets ready to fire, enough to engage several point targets or saturate a defined area with precision-guided effects rather than unguided mass fires. The CGR-080 is best understood as a divisional or corps-level counterfire and interdiction weapon: its range is suitable for artillery batteries, air-defense radars, logistics collection points, pontoon bridges, staging areas and command posts located beyond 155 mm artillery but short of operational rear areas.

The CTM-MR fills the middle range band. Available data list it as a GPS/INS-guided missile using composite propellant, carrying a penetration-fragmentation warhead, with a range of 50 to 160 km, a stated 9 m circular error probable and four missiles per pod. That warhead description matters because it suggests a different target set from the CGR-080. A penetration-fragmentation payload is more relevant against hardened field headquarters, protected ammunition storage, revetted equipment areas, aircraft shelters, bridge structures and logistics nodes where blast alone may be insufficient. The CTM-MR would also reduce the need to spend a CTM-290 ballistic missile on targets that require more reach and accuracy than an 80 km rocket, but not the full cost or political weight of a 290 km strike. For armies trying to rebuild deep fires, that intermediate band is often the missing layer between tactical rocket artillery and longer-range ballistic or cruise missiles.

The CTM-290 is the most consequential armament in the package because it moves X-Fire into operational interdiction rather than extended fire support. Hanwha’s published data list the CTM-290 as a GPS/INS-guided tactical ballistic missile with composite propellant, an 80 to 290 km range, a high-explosive blast-fragmentation warhead, one missile per pod and a 9 m circular error probable. On a two-pod launcher, this means two ballistic missiles ready to fire. That load is small compared with rocket salvos, but the military effect is different: it allows a commander to hold at risk brigade and army-level headquarters, long-range surface-to-air missile batteries, railheads, ammunition depots, fuel sites, reserve assembly areas and airfield support infrastructure. The limitation is equally important. A ballistic missile of this class depends on reliable target development, battle damage assessment and ammunition prioritization; it is not a substitute for massed artillery when the target is dispersed infantry or moving armor.

For X-Fire, the MoU is significant because the launcher shown by Soframe and Thales at Eurosatory 2026 was designed around modular missile pods and standardized mechanical and electrical interfaces. The X-Fire multiple launch system is based on an 8x8 Daimler Truck Zetros chassis, a protected three-person cab, a displayed vehicle length of 10.9 m, width of 2.54 m, height of 3.62 m, gross vehicle weight of 40.4 tonnes, 350 kW engine, 800 km advertised road range, reload time of less than eight minutes and a transition from firing position to movement in under one minute. Those figures define its tactical use. A launcher that fires and displaces in under one minute is designed for a battlefield where counter-battery radars, acoustic sensors, unmanned aerial vehicles, electronic intelligence and loitering munitions can compress the enemy response cycle. The protected cab, certified to STANAG 4569 Level 3 and AEP-55 according to displayed data, is not a substitute for concealment, but it improves crew survivability against small-arms fire, fragments, mines and improvised explosive devices during movement and firing operations.

The practical value of pairing X-Fire with Chunmoo ammunition would depend on integration beyond the launcher rails. Fire-control software must handle ballistic data, pod identification, mission planning, safety constraints, target coordinates, fuze settings, launch sequencing and post-firing reporting for each munition type. The launcher also needs navigation resilience because GPS/INS weapons can be affected by jamming, spoofing or degraded satellite coverage. Thales has already highlighted TopStar Smart Receiver GNSS anti-jamming technology and the TopAxyz inertial measurement unit for X-Fire, which indicates that the French side is treating navigation and timing as part of the weapon chain rather than as vehicle accessories. In operational terms, this matters because a 9 m or 15 m circular error probable is only useful if the launcher knows where it is, the target coordinates are accurate, and the command network can move targeting data faster than the target can relocate.

The agreement also has an industrial dimension that is easy to overstate but important to measure. Hanwha has already created a European customer base for Chunmoo through Poland, Estonia and Norway. Poland contracted for 290 Chunmoo launchers in two batches, including CGR-080 and CTM-290 missiles, and Hanwha later signed an approximately $4 billion contract with Poland’s Armament Agency for local production of CGR-080 guided rockets under the Homar-K program. Estonia ordered additional Chunmoo launchers in May 2026 after an earlier package, while Norway signed a $922 million contract for 16 Chunmoo launchers and guided missiles as part of a wider $2 billion long-range artillery plan. These numbers show why the X-Fire integration could be more than a demonstration: the ammunition line is not theoretical, and European production is already being linked to Polish industry.

The main constraint is that an MoU is not a procurement contract, a completed qualification program or an in-service firing capability. Each munition would still require mechanical, electrical, software, safety and live-fire certification before a customer could treat X-Fire and Chunmoo missiles as an operational combination. The tactical case is nevertheless clear. A battery equipped with X-Fire and the three Hanwha munitions could distribute launchers across road networks, assign CGR-080 rockets to counterfire and near-depth targets, reserve CTM-MR missiles for hardened or higher-value objectives at 50 to 160 km, and use CTM-290 missiles for rear-area interdiction out to 290 km. That would give European forces a more flexible land-based strike ladder, but its combat value would still depend on target acquisition, stockpile size, reload vehicles, communications security and the ability to sustain missile production under wartime demand.

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The U.S. Army is expanding the combat flexibility of its M1 Abrams tanks with a new five-year production contract for Northrop Grumman’s M1147 Advanced Multi-Purpose (AMP) 120mm round, the company announced on June 22, 2026. The award highlights continued U.S. investment in armored warfare by giving Abrams crews a single programmable munition capable of engaging a wide range of battlefield threats while reducing logistical complexity.

The M1147 AMP combines the functions of multiple legacy tank rounds through a programmable fuze that supports point-detonate, delay, and airburst modes. This capability allows Abrams units to engage infantry, fortified positions, anti-tank teams, and targets concealed behind cover with greater speed and flexibility, reinforcing the tank’s role as a key element of combined-arms operations in an era shaped by drones, precision fires, and increasingly complex ground combat.

Related Topic: U.S. Abrams Tanks in Bulgaria Show Why American Heavy Armor Remains Essential to NATO Ground Defense

The U.S. Army’s M1147 AMP contract gives M1 Abrams crews a single programmable 120mm round to engage armor, fortifications, infantry, and concealed threats with greater speed and flexibility (Picture Source: U.S. Marines Corps / Northrop Grumman / Edited By Army Recognition Group)

On June 22, 2026, Northrop Grumman announced that the U.S. Army had awarded the company a five-year contract to produce the M1147 Advanced Multi-Purpose 120mm tank ammunition round for the M1 Abrams Main Battle Tank. The award comes at a time when armored forces are being reassessed under the pressure of drones, loitering munitions, top-attack weapons, and precision artillery. Far from signaling the decline of the tank, the contract shows that the United States is investing in ammunition, fire-control integration, and combat adaptability to keep heavy armor at the center of land warfare.

The M1147 Advanced Multi-Purpose round is designed to give Abrams crews a single 120mm munition able to perform missions previously assigned to four separate legacy rounds. By combining several effects into one round, the AMP reduces the need for tank crews and logistics units to carry multiple specialized ammunition types for different target sets. This has direct operational value for armored brigade combat teams, where ammunition load planning, resupply tempo, and target uncertainty can shape the outcome of a fight. In NATO terms, the round strengthens lethality, survivability, interoperability, and sustainment by simplifying the ammunition chain while widening the tactical choices available to commanders.

Technically, the M1147 AMP uses a multi-mode programmable fuze that can function in point-detonate, point-detonate delay, and airburst modes. In point-detonate mode, the round can be used against exposed targets, light armor, and field positions. In delay mode, it can attack targets behind cover, penetrate obstacles, or support breaching tasks against walls and structures. In airburst mode, it can detonate above or near the target, giving Abrams crews a way to engage anti-tank guided missile teams, dismounted infantry, drone operators, and other threats using terrain, trenches, or defilade for protection. This transforms the Abrams from a platform mainly associated with direct-fire tank engagements into a more flexible battlefield system able to defeat a broader range of targets.

The military significance is clear. The M1 Abrams remains one of the principal symbols and instruments of U.S. armored power, combining heavy protection, mobility, advanced optics, digital fire control, and a 120mm smoothbore gun. While recent conflicts have shown that tanks are vulnerable when isolated from air defense, electronic warfare, infantry, engineers, and reconnaissance assets, they have also shown that armored shock, protected firepower, and direct-fire dominance remain essential for seizing and holding ground. The M1147 AMP addresses one of the core challenges facing tank crews today: the need to react rapidly against diverse threats without waiting for the perfect ammunition type to be selected, loaded, or delivered forward.

In the age of drones, the value of the M1147 AMP is not limited to traditional armored warfare. Small UAVs, loitering munitions, and sensor-to-shooter networks have made the battlefield more transparent, forcing tanks to fight from covered positions, move rapidly, and engage fleeting targets. A programmable airburst round gives Abrams crews a stronger response against enemy teams operating anti-tank missiles, drone control points, observation posts, and infantry elements concealed in buildings or trenches. This is especially important in combined arms maneuver, where tanks must support infantry, suppress enemy positions, breach obstacles, and create openings for follow-on forces while operating under constant surveillance.

The contract also has strategic implications for the U.S. Army and allied forces. Northrop Grumman’s experience includes more than 45 years in large-caliber ammunition design, development, and production, with more than five million large-caliber tactical and training rounds delivered to the U.S. Army, U.S. Marine Corps, and allied militaries. A five-year production framework gives the Army a more predictable industrial base for a key 120mm NATO-standard capability. It also supports international partners operating Abrams tanks or aligned with U.S. armored doctrine, helping sustain common ammunition stocks, shared training, and coalition readiness across NATO and partner formations.

The award demonstrates that the United States is not treating the tank as a Cold War legacy platform, but as a combat system that must evolve through better munitions, digital integration, active protection, networking, and combined arms tactics. The M1147 AMP gives Abrams units a more efficient and adaptable round for complex land combat, where armored formations may face enemy armor, fortified positions, infantry with anti-tank weapons, and drone-enabled targeting in the same engagement area. By investing in this ammunition, the U.S. Army reinforces the role of the Abrams as a backbone of heavy maneuver forces and sends a clear message: American armored power will continue to adapt, remain lethal, and provide NATO with a decisive ground combat capability in high-intensity warfare.

Written by Teoman S. Nicanci – Defense Analyst, Army Recognition Group

Teoman S. Nicanci holds degrees in Political Science, Comparative and International Politics, and International Relations and Diplomacy from leading Belgian universities, with research focused on Russian strategic behavior, defense technology, and modern warfare. He is a defense analyst at Army Recognition, specializing in the global defense industry, military armament, and emerging defense technologies.

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France and Germany moved on June 22 to place KNDS under equal state control, tightening political oversight of one of Europe’s most important land warfare manufacturers as demand for tanks, artillery, and armored vehicles rises.

The planned ownership shift would give Paris and Berlin direct influence over the maker of the Leopard 2 and Leclerc main battle tanks before a Paris-Frankfurt IPO. It also signals a broader effort to strengthen Europe’s defense industry base and secure long-term armored warfare production.

Related topic: KNDS unveils CAPINT main battle tank to bridge the gap between French Leclerc XLR and future MGCS.

France and Germany agreed to establish equal state control over KNDS ahead of its planned IPO, giving Berlin direct influence over the maker of Leopard 2 tanks, PzH 2000 howitzers and future European land combat systems as Germany accelerates military rearmament (Picture source: German MoD).

The important point is the change in control structure, not only the valuation. Since KNDS was created in 2015, France has held its 50% through the state, while the German half remained in private hands. That arrangement was workable while European land procurement was relatively slow, but it became more difficult after Russia’s full-scale invasion of Ukraine, when tanks, artillery, armored vehicles, ammunition and maintenance capacity again became central to deterrence. Berlin’s entry as a shareholder converts Germany from a customer and industrial host into a sovereign co-owner with formal governance rights over a company that supplies core equipment to the Bundeswehr and several NATO armies.

According to the French presidency, the agreement is built around long-term shareholder commitments, equal governance rights and oversight of security-sensitive matters. Germany is also seeking a “golden share” in KNDS Deutschland, which would give Berlin additional influence over personnel and strategic decisions at national level. This matters because KNDS is legally headquartered in Amsterdam, industrially divided between France and Germany, and commercially exposed to export controls, classified technology, ammunition capacity and military production schedules. For Germany, equal ownership reduces the risk that a future listed KNDS could be perceived as politically tilted toward Paris, especially when the Bundeswehr is placing large orders and when German factories in Munich, Kassel and other sites remain central to output.

The timing is linked to Germany’s rearmament program. Berlin’s 2026 defense budget reached €82.7 billion in the core budget, while total defense funding including special funds was reported at €108.2 billion; plans also call for total defense spending to rise to €144.9 billion in 2027. That spending has to be translated into deliverable equipment, not only parliamentary authorizations. KNDS is directly tied to this problem. In November 2025, the company rolled out Leopard 2A8 main battle tanks and PzH 2000 self-propelled howitzers in Munich, noting that Germany had contracted 123 Leopard 2A8 tanks and 22 PzH 2000 howitzers to replace equipment transferred to Ukraine. The first Leopard 2A8 deliveries were scheduled from April 2026, with PzH 2000 deliveries from May 2026.

The IPO would bring three practical effects. First, it would create a public market valuation for KNDS at a time when European defense equity values have risen sharply but production bottlenecks remain. Second, it would allow the Wegmann family to exit and France to reduce part of its holding while preserving state parity through voting and governance arrangements. Around 10% of the remaining German family shares and 10% of France’s shares are expected to be sold during the IPO, implying an initial free float of about 20% if the transaction sequence is completed. Third, a listed KNDS would gain access to equity markets for later capital increases, acquisitions or balance-sheet strengthening. The first listing may mainly provide liquidity for existing shareholders, but public-market access would make future industrial financing easier if KNDS needs to add factories, hire engineers, automate ammunition lines or buy suppliers.

The industrial case is measurable. KNDS reported 2025 revenue of €4.4 billion, up 15.9%, with €13.5 billion in new orders and a backlog of €33.1 billion at year-end. Land Systems Germany generated €2.5 billion in revenue, Land Systems France €1.3 billion, and ammunition €612 million, up 24.7%. EBIT reached €661 million, equal to 15.0% of sales, while the workforce stood at about 11,000. These figures show a company with more demand than it can quickly convert into deliveries. The IPO and the Franco-German governance settlement therefore address the same issue from two directions: capital-market access on one side and political control over sensitive production on the other.

For Germany, the strategic value is especially concrete in heavy land warfare. The Leopard 2 family remains the main battle tank reference for much of Europe; 18 European nations already use Leopard 2, with 23 user nations worldwide. Standardization around the Leopard 2A8, shared upgrades, common spare parts and common training pipelines reduce the logistics burden for NATO formations operating in Central and Eastern Europe. The PzH 2000 and RCH 155 self-propelled howitzers address a separate but related requirement: sustained long-range fires. The war in Ukraine has shown that artillery availability, barrel life, ammunition stockpiles and repair cycles are not secondary issues; they determine whether brigades can maintain pressure over weeks and months.

The agreement also has consequences for future programs. KNDS is one of the industrial anchors of the Main Ground Combat System, the Franco-German effort intended to replace the Leopard 2 and Leclerc around 2040. In 2025, KNDS Deutschland, KNDS France, Rheinmetall Landsysteme and Thales established an MGCS project company in Cologne, with equal 25% ownership and a 50-50 French-German workshare. That structure reflects the same political problem now being addressed at KNDS: neither country wants to fund a future main battle tank architecture while having less influence over technology choices, exports, production allocation or intellectual property. Equal KNDS shareholding gives Berlin a clearer position before MGCS moves from concept consolidation into more expensive development phases.

The limits should also be stated. A public listing will not by itself produce more tanks, howitzers or ammunition in 2026. Output will still depend on engines, armor steel, electronics, skilled labor, explosives, test capacity and government contracting speed. State ownership also creates possible friction if political direction conflicts with management decisions or investor expectations. But the transaction is important because it aligns three elements that had been moving at different speeds: Germany’s budget expansion, KNDS’ order backlog, and the ownership structure of Europe’s main land-systems group. For Berlin, buying into KNDS is therefore not symbolic. It is a decision to attach national rearmament, industrial policy and Franco-German defense governance to the same company before private investors enter the capital structure.

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The United Kingdom has advanced three new long-range strike weapon designs for Ukraine under Project Brakestop, with all three completing flight testing within a year of the program's launch. The effort could give Kyiv a domestically supported strike capability exceeding 500 km while reducing reliance on foreign supply chains and speeding battlefield deployment.

Project Brakestop is a British-led initiative focused on rapidly developing ground-launched precision strike weapons tailored to Ukraine's operational requirements. The program emphasizes low-cost production, accelerated manufacturing cycles, and the exclusion of U.S.-origin components, a move that could simplify export approvals and sustain long-term supply. The successful flight testing of three competing designs marks a significant milestone as London seeks to expand Ukraine's ability to hold high-value targets at greater ranges.

Related News: UK Launches Project Brakestop: A Jet-Powered Long-Range Attack Drone Initiative Modeled After Ukraine’s Palianytsia OWE UAV

The SkyLance propeller-driven strike weapon is one of three British-designed long-range systems selected for further development under Project Brakestop. (Picture source: Rotron Aerospace)

Unlike the Storm Shadow cruise missile already supplied to Ukraine, the new British designs are intended as simpler, lower-cost weapons optimized for rapid production. The objective is not to replace existing Western cruise missiles but to complement available inventories with systems that can be manufactured in larger quantities and employed without the export restrictions often associated with multinational supply chains. The program also reflects the growing importance of electronic warfare resilience and sovereign production capabilities in modern conflicts.

The UK Ministry of Defence (MoD) confirmed on June 22, 2026, that Project Brakestop, launched by Taskforce Kindred in November 2024, had reached a major milestone with the successful flight testing of three British-developed systems. The original requirement called for a minimum range of 500 km, a warhead weighing at least 225 kg, a speed exceeding 600 km/h, a target unit cost of approximately £400,000 excluding the warhead, and the ability to produce at least twenty weapons per month within months of a production order.

The program illustrates an accelerated acquisition model rarely seen in missile development. Following the launch of the competition, the MoD received 27 industry submissions. Technical evaluations were conducted before competitors participated in "Dragon's Den"-style presentations in February 2025. Six British companies subsequently received contracts worth approximately £5 million each to design and build prototypes within seven months. By December 2025, three contenders remained: MBDA UK, MGI Engineering, and Rotron Aerospace.

The three systems were tested at the MoD Hebrides Range, a specialist test facility operated by QinetiQ under the Long-Term Partnering Agreement. Flight trials were conducted between December 2025 and February 2026 before the public announcement in June 2026. The timeline demonstrates the UK's effort to compress a development process that would traditionally require several years into a much shorter cycle through parallel design, testing, and evaluation activities.

MBDA UK developed the Crossbow missile, a turbojet-powered design using an in-house visual navigation system. MBDA UK is already a strategic supplier to the United Kingdom, producing systems including Storm Shadow, Brimstone, Meteor, and the Common Anti-Air Modular Missile (CAMM). Crossbow appears designed to maintain navigation capability in contested environments by comparing imagery collected during flight with preloaded terrain references, reducing reliance on Global Positioning System (GPS) signals and U.S.-controlled navigation data.

MGI Engineering proposed the TigerShark concept, which incorporates technologies derived from Formula One motorsport engineering, including advanced composite materials, aerodynamic optimization, and rapid prototyping methods. The UK small and medium-sized enterprise (SME), which has more than 25 years of experience in Formula One, received its first defense contract through Project Brakestop. The approach could enable lighter airframes and faster manufacturing cycles while maintaining the structural strength required for long-range missions.

Rotron Aerospace developed SkyLance, a propeller-driven design that prioritizes range and affordability over speed. Propeller propulsion generally consumes less fuel than turbojet engines, potentially increasing endurance and simplifying maintenance requirements. However, the lower speed may increase exposure to modern air-defense systems. SkyLance therefore appears particularly suited for attacks against fixed or semi-fixed targets such as ammunition depots, logistics hubs, command centers, and energy infrastructure located deep behind the front line.

The 225 kg warhead required by the MoD has already been developed and tested by another British company. For comparison, the Storm Shadow carries the BROACH (Bomb Royal Ordnance Augmented Charge) warhead weighing approximately 450 kg. Storm Shadow, an air-launched cruise missile with a reported export range exceeding 250 km, combines inertial navigation, satellite guidance, terrain-reference navigation, and an infrared terminal seeker to engage hardened targets with high precision.

The distinction between Storm Shadow and the Brakestop designs lies as much in industrial philosophy as in operational employment. Storm Shadow remains a complex, high-cost penetration weapon intended for high-value targets. The Brakestop effectors are designed to provide a larger volume of ground-launched strike capability at lower cost while supporting a production objective of approximately twenty weapons per month. Such an approach could allow Ukraine to sustain repeated deep-strike campaigns rather than reserve limited stocks for a small number of strategic targets.

The next phase of the program is already underway. Phase 2 contracts valued at approximately £15 million have been awarded to multiple suppliers to further develop the designs and produce fifteen improved effectors each, together with launchers and support vehicles. Additional testing is planned in the United Kingdom in the coming months, followed by further trials overseas, including in Ukraine. These activities are intended to validate not only flight performance but also launcher integration, mobility, sustainment requirements, and operational readiness.

The operational implications for Ukraine could be substantial. Ground-launched weapons with a range exceeding 500 km would allow strikes against ammunition depots, command facilities, air bases, rail junctions, and military infrastructure located far from the front line. When combined with unmanned aerial vehicles, decoys, and electronic warfare assets, such systems could complicate defensive planning, increase the number of threats that must be intercepted, and force the dispersion of air-defense assets across a larger area.

Project Brakestop also reflects a broader objective of industrial sovereignty. The requirement to exclude U.S. components and navigation data reduces exposure to International Traffic in Arms Regulations (ITAR), the U.S. framework governing defense exports. For London, this provides greater freedom over export decisions, system upgrades, and operational support. For Ukraine, it may offer a more predictable source of long-range strike weapons that is less affected by restrictions associated with U.S.-controlled technologies.

The program has been delivered by a combined MoD team involving National Armaments, the Defence Science and Technology Laboratory (Dstl), 744 Naval Air Squadron, the Air and Space Warfare Centre Air Wing, 11 Explosive Ordnance Disposal Regiment, Taskforce Kindred, and QinetiQ. The participation of operational, scientific, industrial, and munitions specialists indicates that Brakestop serves not only as a missile development effort but also as a test case for accelerated defense acquisition and production methods.

The strategic implications extend beyond Ukraine. By demonstrating that a long-range strike weapon capable of reaching targets beyond 500 km can progress from competition launch to flight testing within months, the United Kingdom is examining new approaches to defense procurement for high-intensity conflicts. Across Europe, Project Brakestop highlights the growing importance of combining long-range precision strike capabilities with resilient supply chains, scalable production capacity, and greater national control over critical defense technologies.

Written By Erwan Halna du Fretay - Defense Analyst, Army Recognition Group
Erwan Halna du Fretay holds a Master’s degree in International Relations and has experience studying conflicts and global arms transfers. His research interests lie in security and strategic studies, particularly the dynamics of the defense industry, the evolution of military technologies, and the strategic transformation of armed forces.

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Australia and Canada signed a A$2.5 billion (US$1.8 billion) agreement for Canberra's Over the Horizon Radar (OTHR) capability, the largest defense export contract in Australian history. The deal strengthens Arctic surveillance and early warning coverage as Canada responds to rising security competition in the High North.

The agreement will see Canada acquire Australia's proven OTHR technology, a long-range radar capability designed to detect aircraft and maritime activity at distances far beyond the reach of conventional line-of-sight radar systems. The acquisition supports Ottawa's effort to modernize northern defense infrastructure, improve domain awareness across the Arctic, and enhance coordination with NORAD and Five Eyes partners as regional military activity increases.

Related News: Canada Moves to Acquire Saab GlobalEye Intelligence Aircraft for Arctic Defense

Jindalee Operational Radar Network (JORN) (Picture source: Australian MoD)

The agreement forms part of a broader Canadian effort to modernize continental defense and reinforce sovereignty in the Arctic. Ottawa has identified long-range surveillance as a critical requirement for detecting potential airborne and maritime threats earlier, improving decision-making timelines, and supporting the Canadian Armed Forces (CAF) in monitoring one of the world's most strategically important regions. The program also contributes directly to the modernization of the North American Aerospace Defense Command (NORAD), whose responsibilities have expanded amid evolving security challenges across North America.

According to information released by the Government of Canada on June 22, 2026, Secretary of State for Defence Procurement Stephen Fuhr signed a Government-to-Government Acquisition Arrangement in Canberra with Australian Deputy Prime Minister and Minister for Defence Richard Marles. Alongside this framework agreement, Canada concluded an OTHR Rights Agreement with Australia and BAE Systems Australia, as well as a comprehensive Industrial and Technological Benefits (ITB) agreement with the company. These arrangements formally transition the A-OTHR program from planning into the delivery phase.

The acquisition follows an earlier Canadian decision announced on March 18, 2025, to invest more than C$6 billion in the A-OTHR program. While Ottawa had already selected Australia's technology as the foundation of its future Arctic surveillance network, the latest agreements establish the contractual, industrial, and technological framework necessary to begin implementation. BAE Systems Australia is scheduled to commence work on July 1, 2026, with Canada targeting an Initial Operational Capability (IOC) by December 2029.

The system being acquired is derived from Australia's extensive experience with Over-the-Horizon Radar (OTHR) technology, notably through the Jindalee Operational Radar Network (JORN). Unlike conventional radar systems that depend on direct line-of-sight propagation, OTHR employs high-frequency radio waves refracted by the ionosphere, allowing radar energy to travel beyond the Earth's curvature. This enables the detection and tracking of aircraft and maritime targets at distances extending several thousand kilometers from the radar installation.

Publicly available information indicates that the JORN architecture can detect air and maritime targets at ranges exceeding 3,000 kilometers under favorable conditions. The network relies on large transmitter and receiver arrays distributed across multiple sites and uses advanced signal-processing systems to transform reflected high-frequency signals into a recognized air and maritime picture. Although the precise configuration destined for Canada has not been disclosed, the capability will draw heavily on technologies already proven in Australian service.

Several technical characteristics make OTHR particularly suited to Canada's Arctic requirements. The technology can monitor vast expanses with relatively limited infrastructure compared with conventional radar networks. It provides persistent surveillance of remote approaches where geography and climate complicate traditional sensor coverage. Moreover, the system can detect activity far earlier than many existing sensors, providing valuable warning time for military and political authorities. Performance remains dependent on ionospheric conditions, requiring sophisticated calibration and signal management to maintain reliable tracking accuracy.

From a tactical and operational perspective, the future A-OTHR capability will substantially expand Canada's surveillance envelope across the Arctic and northern maritime approaches. The system is designed to detect and track both airborne and maritime threats approaching Canadian territory, enabling earlier threat assessment and response planning. Data generated by the radar can be integrated with other surveillance assets, including conventional radar networks, intelligence systems, airborne sensors, and space-based platforms. This layered approach enhances situational awareness and strengthens the effectiveness of NORAD's early-warning architecture. In practical terms, commanders gain additional time to evaluate unusual aircraft movements, long-range bomber activity, cruise missile threats, or suspicious maritime operations before they approach critical areas.

The industrial dimension of the project is equally important. Under the Industrial and Technological Benefits framework, BAE Systems Australia will work alongside Canadian companies to develop expertise related to the operation, maintenance, and future evolution of the radar system. Canadian officials estimate that the project will contribute nearly C$290 million annually to national gross domestic product and support approximately 2,270 jobs each year between 2026 and 2033. Ottawa also expects the program to strengthen domestic sovereign capabilities in advanced radar technologies while expanding participation across Canada's defense industrial supply chain.

Beyond the bilateral relationship, the agreement illustrates a broader transformation of allied defense architectures. By integrating Australian-developed OTHR technology into Canada's Arctic surveillance network, Ottawa seeks to reinforce NORAD's early-warning posture while reducing vulnerabilities across North America's northern approaches. At the same time, the project deepens defense-industrial cooperation among Five Eyes partners and demonstrates how trusted allies are increasingly pooling technological expertise to address common security challenges. As strategic competition expands from the Arctic to the Indo-Pacific, long-range surveillance networks such as A-OTHR are becoming central elements of collective deterrence, resilience, and domain awareness across multiple theaters.

Written By Erwan Halna du Fretay - Defense Analyst, Army Recognition Group
Erwan Halna du Fretay holds a Master’s degree in International Relations and has experience studying conflicts and global arms transfers. His research interests lie in security and strategic studies, particularly the dynamics of the defense industry, the evolution of military technologies, and the strategic transformation of armed forces.

The U.S. Marine Corps has equipped the 12th Marine Littoral Regiment in Okinawa with NMESIS and MADIS, expanding its anti-ship and air-defense capabilities across the Indo-Pacific. The deployment strengthens forward-positioned forces along the First Island Chain and advances the Marine Corps' Force Design modernization effort for potential high-intensity conflict in the Pacific.

The systems were formally delivered in June 2026 to the 12th Marine Littoral Regiment, a forward-deployed unit assigned to the 3rd Marine Division in Okinawa. NMESIS provides long-range maritime strike capability against hostile surface vessels, while MADIS enhances protection against drones and other aerial threats. Together, the systems increase the regiment's ability to operate independently inside contested littoral areas and support joint U.S. deterrence efforts in the region.

Related Topic: US Japan Integrate NMESIS Anti-ship System and MADIS Air Defence Near Taiwan in Clear Signal to China

U.S. Marines in Okinawa receive NMESIS and MADIS, boosting anti-ship and air-defense capabilities across the Indo-Pacific. (Picture source: US DoD)

The arrival of both systems marks another stage in the evolution of Marine Littoral Regiments, formations specifically created to conduct expeditionary operations inside contested maritime environments. Unlike traditional Marine units organized primarily around infantry maneuver, MLRs combine long-range precision fires, air defense, reconnaissance, and command-and-control assets to create distributed formations capable of influencing naval and air operations across wide geographic areas. For Okinawa-based forces, the introduction of NMESIS and MADIS expands the range of options available to commanders tasked with supporting deterrence missions in the East China Sea and the wider Western Pacific.

The transfer follows a similar fielding effort within the 3rd Marine Littoral Regiment in Hawaii, which received NMESIS in November 2024 and MADIS one month later. According to information released by the U.S. Marine Corps, both systems have already participated in major regional exercises including Balikatan 2025, Balikatan 2026, and Resolute Dragon 2025, providing an opportunity to validate deployment procedures, sustainment requirements, and integration with allied forces operating throughout the Indo-Pacific region.

NMESIS constitutes one of the Marine Corps' most important Force Design capabilities. The system combines the Naval Strike Missile (NSM) with the remotely operated ROGUE-Fires carrier derived from the Joint Light Tactical Vehicle (JLTV). The NSM is a sea-skimming subsonic missile capable of striking surface targets at ranges exceeding 185 kilometers while employing an Inertial Navigation System (INS), Global Positioning System (GPS) guidance, and an imaging infrared seeker during the terminal phase. Its low-observable flight profile and autonomous target-recognition features are intended to reduce vulnerability to enemy air-defense networks while maintaining precision against moving naval targets. The unmanned launcher further enhances survivability by limiting personnel exposure during firing operations and subsequent displacement. An NMESIS battery is designed to integrate into wider naval kill chains through external sensors and distributed command-and-control networks, enabling engagements based on targeting data generated by maritime patrol aircraft, surface combatants, or other joint-force assets.

The mobility of the ROGUE-Fires carrier remains central to the concept. Built on the JLTV chassis and powered by a 300-horsepower diesel engine, the vehicle can rapidly relocate between firing positions across difficult terrain, including coastal areas, islands, and expeditionary operating locations. This mobility complicates enemy targeting efforts while allowing Marine units to establish temporary anti-ship missile positions across strategically important maritime corridors.

MADIS addresses a different but equally important operational requirement by providing mobile short-range air defense and counter-unmanned aircraft system protection. Built around a two-vehicle architecture, the MADIS Mk1 combines FIM-92 Stinger surface-to-air missiles with a 30 mm M230LF chain gun, while the MADIS Mk2 integrates the RPS-42 three-dimensional tactical radar, command-and-control equipment, and the Modi II electronic warfare suite. The radar is designed to detect small low-signature aerial targets at distances of roughly 30 kilometers, while electro-optical and infrared sensors support identification and engagement under day and night conditions. The electronic warfare package can disrupt or spoof hostile drone control links before kinetic engagement becomes necessary, reducing ammunition expenditure and increasing endurance during prolonged operations.

The combination of NMESIS and MADIS provides Marine Littoral Regiments with a more complete combat architecture. NMESIS allows distributed units to hold enemy surface combatants at risk across maritime chokepoints and critical sea lines of communication, thereby supporting sea-denial operations. At the same time, MADIS protects missile batteries, logistics nodes, command posts, and maneuver elements against reconnaissance drones, loitering munitions, helicopters, and low-flying aircraft. When connected through the Common Aviation Command and Control System (CAC2S) and broader joint networks, both systems contribute to a distributed sensor-to-shooter framework capable of detecting, tracking, and engaging threats across multiple domains while maintaining the mobility necessary to survive inside contested weapons engagement zones.

The deployment of these capabilities to Okinawa carries implications well beyond the Marine Corps. Positioned near Taiwan, the East China Sea, and several of the region's most important maritime routes, Okinawa occupies a central role in U.S. and allied defense planning. By increasing the density of land-based anti-ship and air-defense assets available to forward-deployed forces, Washington reinforces its ability to complicate potential adversary operations while supporting allied deterrence efforts. The fielding of NMESIS and MADIS also reflects a broader shift across the Indo-Pacific toward distributed force structures capable of generating combat effects without relying on large fixed installations. As regional military competition continues to intensify, such capabilities are likely to influence force-posture decisions, operational planning, and defense modernization programs throughout the Pacific theater.

Written By Erwan Halna du Fretay - Defense Analyst, Army Recognition Group
Erwan Halna du Fretay holds a Master’s degree in International Relations and has experience studying conflicts and global arms transfers. His research interests lie in security and strategic studies, particularly the dynamics of the defense industry, the evolution of military technologies, and the strategic transformation of armed forces.

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Taiwan has begun testing activities for its first MQ-9B SkyGuardian unmanned aerial vehicle following the delivery of the initial aircraft from the United States, marking a significant step in Taipei’s effort to expand long-range intelligence, surveillance, and reconnaissance (ISR) capabilities amid growing military pressure in the Taiwan Strait. According to information published by *Taipei Times* on June 22, 2026, assembly work is currently underway in Taiwan, with flight testing expected to follow before the system enters operational service.

The development was first reported by Taiwan’s Central News Agency (CNA), which stated that Taiwan’s military and manufacturer General Atomics Aeronautical Systems are jointly conducting assembly and integration activities. Taiwan ordered four MQ-9B SkyGuardian systems through a U.S. Foreign Military Sales (FMS) agreement approved in 2020, with deliveries scheduled in two phases spanning 2026 and 2027. The acquisition is intended to significantly enhance Taiwan’s ability to monitor maritime and air approaches around the island while improving strategic warning and targeting capabilities.

Related Topic: Taiwan’s U.S.-Made HIMARS Live Fire Reveals How Mobile Precision Fires Could Disrupt China’s Amphibious Assault

General Atomics MQ-9B SkyGuardian is a medium-altitude, long-endurance unmanned aerial vehicle equipped with advanced radar and electro-optical sensors for maritime surveillance, target tracking, and strategic intelligence collection. (Picture source: U.S. Department of War/Defense)

The arrival of the MQ-9B represents one of the most important enhancements to Taiwan’s unmanned reconnaissance fleet in recent years. Unlike smaller tactical drones already operated by the Taiwanese armed forces, the MQ-9B belongs to the category of medium-altitude, long-endurance unmanned aerial vehicles capable of conducting missions over vast distances and remaining airborne for more than 40 hours. This endurance allows persistent surveillance of critical areas including the Taiwan Strait, the Bashi Channel, and approaches to the East and South China Seas.

Developed by General Atomics as the latest evolution of the MQ-9 family, the SkyGuardian incorporates substantial improvements over earlier MQ-9A Reaper variants. The aircraft is designed to meet NATO airworthiness standards and can safely operate in civilian-controlled airspace through an advanced Detect and Avoid (DAA) system. This capability is particularly important for Taiwan, where military and civilian air traffic operate in close proximity around a densely populated island with limited airspace.

The MQ-9B features a wingspan of approximately 24 meters and can fly at altitudes exceeding 40,000 feet. Powered by a Honeywell TPE331 turboprop engine, it combines long endurance with significant payload capacity. The aircraft can carry a variety of electro-optical, infrared, maritime surveillance, and synthetic aperture radar sensors, enabling detection and tracking of surface vessels, aircraft, and ground targets under all weather conditions.

For Taiwan, the strategic value of the MQ-9B extends beyond traditional reconnaissance missions. The aircraft will provide persistent maritime domain awareness, a capability increasingly important as Chinese naval and coast guard activities around Taiwan continue to intensify. Continuous surveillance from high altitude allows commanders to establish patterns of activity, identify unusual movements, and provide early warning of potential military operations.

The system is expected to become a critical component of Taiwan’s broader intelligence architecture. Information collected by the MQ-9B can be integrated with data from ground-based radars, maritime patrol aircraft, satellites, and other unmanned systems to create a more comprehensive operational picture. Such sensor fusion supports faster decision-making and improves the effectiveness of Taiwan’s command-and-control networks.

The acquisition also aligns with Taiwan’s broader defense modernization strategy, which emphasizes asymmetric warfare capabilities. Rather than relying solely on large conventional formations, Taipei has increasingly invested in survivable sensors, precision weapons, mobile missile systems, and unmanned technologies capable of complicating any potential military operation against the island. The MQ-9B contributes directly to this concept by extending surveillance reach far beyond Taiwan’s coastline while reducing risks to manned aircraft crews.

According to previously announced U.S. defense cooperation plans, the complete MQ-9B package includes ground control stations, communications systems, training, logistics support, and associated mission equipment. The integration process currently underway will therefore involve not only aircraft testing but also validation of communications links, sensor performance, mission planning systems, and interoperability with existing Taiwanese military networks.

The timing of the program is particularly significant as military activity around Taiwan remains elevated. Chinese People's Liberation Army aircraft and naval vessels continue to conduct operations around the island, increasing the demand for persistent ISR coverage. Long-endurance unmanned aerial vehicles such as the MQ-9B can maintain surveillance over contested areas for extended periods, reducing coverage gaps and enhancing situational awareness during both peacetime monitoring and potential crisis situations.

Once all four aircraft are delivered and operational, Taiwan will gain a substantially expanded capacity to monitor maritime approaches and track regional military developments in real time. Combined with ongoing investments in indigenous unmanned systems and advanced sensor networks, the MQ-9B fleet will strengthen Taiwan’s ability to detect, assess, and respond to emerging threats. The introduction of these aircraft therefore represents not merely a new reconnaissance asset, but a significant enhancement of Taiwan’s overall intelligence and deterrence posture in one of the world’s most strategically sensitive regions.

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Written by Alain Servaes – Chief Editor, Army Recognition Group
Alain Servaes is a former infantry non-commissioned officer and the founder of Army Recognition. With over 20 years of experience in defense journalism, he provides expert analysis of military equipment, NATO operations, and the global defense industry.

As drone warfare in Ukraine continues to expose the vulnerability of traditional military forces to constant aerial surveillance and precision strikes, the U.S. Pennsylvania National Guard is expanding and modernizing its Unmanned Aircraft System (UAS) Training and Innovation Facility at Fort Indiantown Gap. The upgrade will strengthen the Guard’s ability to prepare U.S. soldiers for battlefields where small drones can rapidly detect, track, and assist in destroying high-value targets, making unmanned systems a decisive factor in combat operations.

The expanded facility will provide advanced environments for drone training, technology experimentation, and the development of tactics spanning reconnaissance, surveillance, targeting, and autonomous operations. As the U.S. military accelerates efforts to adapt to increasingly drone-centric warfare, the investment positions Pennsylvania at the forefront of preparing forces for future multi-domain conflicts.

Related Topic: U.S. Army purchases 82 AeroVironment P550 drones to expand long-range reconnaissance capacity

Chief Warrant Officer 2 Nathan Shea, Unmanned Aircraft Systems Operations Officer at the Fort Indiantown Gap UAS Training and Innovation Facility, pilots a first-person-view (FPV) drone during a training session at Fort Indiantown Gap, Pennsylvania, on September 2, 2025. (Picture source: U.S. Army)

The modernization effort, announced by the U.S. Army Pennsylvania National Guard, includes the construction of an innovation classroom, a high-technology instructional space, advanced simulator facilities, expanded support infrastructure, and a mock urban village tailored for drone operations training. The project reflects the Army’s growing emphasis on unmanned systems as a critical battlefield capability, particularly in light of lessons learned from recent conflicts, where small drones have reshaped tactical operations.

The Unmanned Aircraft System Training and Innovation Facility has become a key element of Pennsylvania’s expanding role within the Army’s drone training ecosystem. Since its establishment, the center has trained military personnel from across the United States while supporting experimentation with new unmanned technologies and operational concepts. The planned upgrades are intended to increase training throughput while introducing more sophisticated methods for preparing Soldiers to operate in increasingly complex operational environments.

A central component of the modernization is the creation of a dedicated innovation classroom. Unlike traditional instructional spaces, the facility will support collaboration between military operators, technology developers, and training specialists. Such environments are becoming increasingly important as drone technology evolves rapidly, requiring operators to continuously adapt to new software, sensors, communications architectures, and mission profiles. The classroom will allow Soldiers to analyze emerging threats, test operational concepts, and develop tactics tailored to modern battlefield conditions.

The planned high-tech classroom will introduce advanced digital learning capabilities that support more immersive instruction. Modern drone operations require operators to process large volumes of information from multiple sensors while maintaining situational awareness across the battlespace. Enhanced digital training systems can accelerate proficiency by enabling instructors to recreate realistic mission scenarios and provide immediate feedback on decision-making. This approach aligns with broader Army efforts to integrate synthetic training environments into professional military education and operational preparation.

One of the most significant additions is the new simulator room. Simulation has become a critical component of military drone training because it allows personnel to conduct complex missions without consuming flight hours or risking equipment. Advanced simulators can replicate electronic warfare conditions, GPS denial, urban operations, adverse weather, and contested airspace scenarios that would be difficult or costly to reproduce during live training events. By exposing Soldiers to these challenges before actual deployment, simulation increases readiness while reducing training costs.

The mock urban village planned for the facility represents another major capability enhancement. Urban environments present some of the most demanding conditions for unmanned aircraft operations due to signal interference, restricted lines of sight, dense infrastructure, and the presence of civilian populations. The training village will enable operators to practice intelligence collection, target identification, route reconnaissance, and support to ground maneuver forces in realistic urban settings. Such training is increasingly relevant as military planners anticipate future operations occurring in densely populated areas where small drones will play a critical role in providing commanders with real-time battlefield awareness.

The facility's expansion also reflects broader changes occurring throughout the U.S. Army. Small unmanned aircraft have evolved from niche reconnaissance assets into indispensable battlefield systems capable of supporting intelligence gathering, force protection, precision targeting, logistics, and electronic warfare missions. Conflicts in Ukraine and the Middle East have demonstrated how even relatively inexpensive drones can significantly influence tactical outcomes, forcing militaries worldwide to accelerate investments in both unmanned systems and counter-UAS capabilities.

Pennsylvania's drone training mission has grown in parallel with these operational realities. Fort Indiantown Gap already serves as one of the nation's premier military training installations, hosting a wide range of Army and National Guard activities. The enhanced UAS Training and Innovation Facility will further strengthen the installation's role as a center for unmanned systems development and operational readiness. The project also complements broader Army modernization initiatives focused on integrating autonomous technologies into future force structures.

Beyond training benefits, the modernization effort could strengthen collaboration between the military, academia, and the defense industrial base. Innovation-focused facilities increasingly serve as testing grounds for emerging technologies, allowing operational users to evaluate them before making large-scale procurement decisions. This feedback loop helps accelerate capability development while ensuring that new systems address real-world operational requirements.

The investment underscores how unmanned aircraft have become a foundational component of modern military operations rather than a supplementary capability. By combining advanced classrooms, simulation infrastructure, realistic urban training environments, and innovation-focused workspaces, the U.S. Army Pennsylvania National Guard is positioning Fort Indiantown Gap to prepare U.S. soldiers for the next generation of drone-enabled warfare. As the Army expands its reliance on unmanned systems across reconnaissance, targeting, and multi-domain operations, facilities capable of rapidly training and adapting drone operators will become increasingly important to maintaining battlefield effectiveness and technological advantage.

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Written by Alain Servaes – Chief Editor, Army Recognition Group
Alain Servaes is a former infantry non-commissioned officer and the founder of Army Recognition. With over 20 years of experience in defense journalism, he provides expert analysis of military equipment, NATO operations, and the global defense industry.

The United Kingdom is expanding Ukraine’s air and battlefield defenses with a new military aid package that will deliver 150,000 drones, more than 350 air defense missiles, and advanced radar systems by the end of 2026. Announced during the Ukraine Defense Contact Group meeting in Brussels on June 18, 2026, the £752 million commitment strengthens Kyiv’s ability to counter Russian missile and drone attacks while sustaining combat operations across the front line.

The package combines mass drone deployment with enhanced air defense coverage, giving Ukrainian forces greater capacity to detect, track, and engage threats while improving reconnaissance and precision-strike missions. As Russia continues to rely heavily on long-range missile and drone campaigns, the move reinforces a broader Western effort to improve survivability, battlefield awareness, and the protection of critical infrastructure ahead of another winter of intensified attacks.

Related Topic: UK to deliver 1,000 Martlet missiles to Ukraine in £500M air defence package

A British drone operator prepares an unmanned aerial system for launch from an RAF Chinook of 18 Squadron during Exercise Hornets Nest, a Joint Aviation Command trial led by ADAPT. Conducted at Copehill Down in the Salisbury Plain Training Area (SPTA) on July 31, 2025, the exercise evaluated the integration of drone capabilities with helicopter operations to support future battlefield missions. 5picture source: British MoD)

Funded through the UK's £2.26 billion Extraordinary Revenue Acceleration (ERA) loan mechanism backed by proceeds from immobilized Russian sovereign assets, the package was unveiled by UK Defense Secretary Dan Jarvis alongside Ukrainian President Volodymyr Zelensky. The assistance addresses two of Kyiv's most pressing operational requirements: maintaining drone superiority on the battlefield and expanding air defense coverage against Russia's escalating long-range strike campaign.

The commitment to deliver 150,000 drones highlights the central role unmanned systems now play in modern warfare. Since the start of the war, drones have evolved into indispensable combat assets used for reconnaissance, artillery spotting, precision strikes, electronic warfare support, and attacks against armored vehicles, logistics hubs, and command positions. Both Ukraine and Russia now rely on drones at a scale unprecedented in modern conflict.

For Ukraine, sustaining drone inventories has become a strategic necessity. Thousands of systems are lost each month through combat operations, electronic warfare interference, and routine attrition. The British package will help replenish these losses while supporting Ukraine's ability to conduct persistent surveillance and precision attacks across contested areas. Large-scale deliveries also reduce pressure on traditional artillery ammunition stocks while providing commanders with flexible strike options against high-value targets.

A key component of the package is the delivery of more than 350 air defense missiles, including additional Lightweight Multirole Missiles (LMM). Developed by Thales UK, the LMM has proven effective against low-flying aerial threats, including cruise missiles, attack helicopters, and Iranian-designed Shahed one-way attack drones employed extensively by Russian forces. Its relatively low cost compared to larger interceptor missiles makes it particularly valuable against mass drone attacks designed to exhaust defensive inventories.

The missile is commonly integrated with the Stormer High Velocity Missile air defense vehicle, providing Ukrainian forces with a highly mobile, short-range air defense capability. As Russia increasingly combines drones and missiles in coordinated strike packages, systems equipped with LMM interceptors help protect military formations, critical infrastructure, and population centers from saturation attacks.

The radar systems included in the package will further strengthen Ukraine's air defense network. Ground-based radars are essential for detecting low-altitude drones and cruise missiles that attempt to avoid detection by flying below traditional surveillance coverage. Improved radar capacity shortens target-tracking and engagement timelines, enhancing the effectiveness of missile defense units and reducing vulnerabilities within Ukraine's defensive architecture.

The announcement comes as Russia continues intensive aerial attacks against Ukrainian cities, energy infrastructure, and industrial facilities. Moscow's growing use of large-scale drone swarms, often combined with cruise and ballistic missile strikes, seeks to overwhelm Ukrainian defenses and impose economic and psychological pressure on the country. Expanding both detection and interception capabilities directly supports Ukraine's ability to maintain military readiness and protect critical national infrastructure.

Beyond immediate battlefield requirements, British officials confirmed that part of the funding will support Ukraine's domestic defense production sector. Western governments increasingly view local manufacturing as a critical element of Ukraine's long-term resilience, particularly in the production of drones, ammunition, and support equipment. Expanding indigenous production capacity reduces dependence on external supply chains while enabling faster adaptation to evolving battlefield requirements.

The military package follows additional measures announced by Prime Minister Keir Starmer during the G7 summit earlier this week. These included £210 million in UK Export Finance support for Ukraine's nuclear energy infrastructure, as well as new sanctions targeting 70 entities linked to Russia's shadow fleet, procurement networks, and financial support mechanisms. The combined measures reflect London's strategy of applying military, economic, and diplomatic pressure simultaneously to weaken Russia's war effort.

Another significant development announced in Brussels was Britain's assumption of command of the Multinational Force for Ukraine Headquarters (MNF-U). Major General Tom Bateman will assume command next month as a Lieutenant General, leading multinational efforts to coordinate military assistance and develop plans for the long-term regeneration of Ukraine's Armed Forces.

The appointment places the United Kingdom at the center of future force-development planning for Ukraine. While the war continues, NATO members are increasingly examining how Ukraine's military can be modernized, re-equipped, and integrated with Western operational standards over the longer term. The MNF-U headquarters is expected to play a central role in that process.

The announcement also coincided with discussions among Britain, Germany, and Norway on expanding anti-submarine warfare cooperation across the High North and the North Atlantic. All three nations operate advanced anti-submarine assets, including P-8 Poseidon maritime patrol aircraft and modern frigates, reflecting NATO's continued focus on countering Russian naval activity in strategically important maritime regions.

The scale of the drone commitment underscores how unmanned systems have become one of the decisive technologies shaping the war in Ukraine. Combined with new air defense missiles and radar systems, the package strengthens Ukraine's ability to defend its skies, sustain combat operations, and preserve critical infrastructure during what is expected to be another demanding winter campaign. The initiative also demonstrates how Western military assistance is increasingly focused on building enduring operational capacity rather than providing only short-term battlefield support.

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Written by Alain Servaes – Chief Editor, Army Recognition Group
Alain Servaes is a former infantry non-commissioned officer and the founder of Army Recognition. With over 20 years of experience in defense journalism, he provides expert analysis of military equipment, NATO operations, and the global defense industry.

BAE Systems will continue building M109A7 Paladin 155mm self-propelled howitzers and M992A3 ammunition carriers for U.S. armored brigade combat teams under a $535 million U.S. Army contract announced on June 16, 2026, keeping heavy tracked artillery aligned with the pace and protection of armored forces. The award strengthens the Army’s ability to deliver mobile indirect fire from formations that can maneuver with tanks and infantry fighting vehicles instead of relying on fixed or road-bound firing positions.

The contract sustains production of digitally controlled Paladin artillery sets after a $473 million order in January 2026, preserving near-term firepower while the Army studies longer-range self-propelled howitzers. It reflects a broader push to maintain survivable cannon artillery for high-intensity warfare as future fires programs evolve.

Related topic: U.S. Navy Orders First 50 Blackbeard Hypersonic Missiles for Super Hornet Fighters.

BAE Systems has received a $535 million U.S. Army contract to continue production of M109A7 Paladin 155mm self-propelled howitzers and M992A3 ammunition carriers, sustaining armored brigade artillery capability while the Army evaluates future longer-range cannon systems (Picture source: U.S. DoW).

The latest award should be read less as a new artillery modernization breakthrough than as a production and readiness decision. BAE Systems identified the order as covering additional M109A7 howitzers and M992A3 ammunition carriers, while earlier contract reporting described the same production line as including vehicles, support vehicles, and total package fielding kits through December 31, 2029. That distinction matters for Army procurement analysis: a Paladin set is not only a gun vehicle, but a fielded artillery package with ammunition handling, technical documentation, spares, training equipment, and unit-level support needed to turn factory output into deployable fires capacity.

The M109A7 retains the 155mm M284/M284A2 cannon and M182A1 gun mount associated with the M109A6 Paladin, rather than introducing a new long-barrel weapon. This gives the Army a known 39-caliber artillery configuration with established ammunition compatibility, maintenance procedures, and fire-control integration, but it also means the vehicle remains range-limited compared with newer 52-caliber European and South Korean self-propelled howitzers. The practical value of the A7 upgrade is therefore concentrated in mobility, electrical power, survivability, digital fire control, and supportability, not in a major increase in gun range.

In firing terms, the M109A7 provides conventional 155mm high-explosive, smoke, illumination, and precision-guided fires at brigade level. A U.S. Army Center for Army Lessons Learned study identifies the M109A7 as a self-propelled 155mm howitzer with an M284 cannon, a maximum range of 30 km for standard munitions, a maximum firing rate of four rounds per minute for three minutes, and a sustained rate of one round per minute. The same source describes a standard Paladin combat load of 42 projectiles and 31 propellant canisters, with U.S. battalions normally organized around 18 howitzers divided among three batteries.

The armament package gives commanders several tactical options, but each has a different operational implication. Standard 155mm high-explosive ammunition remains the volume-fire option for suppression, neutralization, and destruction of area targets such as mortar positions, infantry concentrations, assembly areas, exposed logistics nodes, and lightly prepared defensive positions. Precision munitions change the employment model: the M982 Excalibur family provides a GPS-guided, unitary high-explosive projectile for point targets, while the M1156 Precision Guidance Kit converts selected conventional 155mm rounds into near-precision weapons by replacing the fuze with a GPS-guided course-correcting fuze.

This ammunition mix is central to the M109A7’s operational relevance. Excalibur is useful when a battery must engage a command post, radar, bridge span, urban firing point, or target close to friendly troops with fewer rounds and lower collateral risk. PGK is less precise than Excalibur but can reduce round expenditure and logistics demand when the target does not require a unitary precision projectile. For a brigade commander, the result is a fire-support tool that can alternate between massed fires and selected precision engagements without shifting the mission to rockets, aircraft, or higher-echelon strike assets.

The vehicle specifications show why the Army continues buying the A7 even without a new cannon. BAE Systems lists the M109A7 at 84,000 lb, with a crew of four, 675 hp engine, 145-gallon fuel capacity, 38 mph maximum road speed, 186-mile estimated cruising range, 60 percent slope capability, 40 percent side slope, 72-inch trench crossing, 42-inch fording depth, and a 70 kW 600 VDC/28 VDC generator. The same data sheet states that the M109A7 and M992A3 have greater commonality with the Bradley Fighting Vehicle through shared power pack, drive train, track, and suspension components, reducing the number of unique items carried by sustainment units inside an armored brigade.

The 600-volt architecture is more than an engineering footnote. Earlier Army reporting stated that the onboard power system was designed to support emerging technologies and battlefield network requirements, while replacing older hydraulic functions with electric drives and an electric rammer improves maintainability and consistency in gun operation. BAE’s data sheet says the M109A7 can receive a fire mission, compute firing data, transition from travel to firing configuration, lay the cannon, and fire within 60 seconds from movement. In an environment shaped by counter-battery radar, acoustic detection, unmanned aerial vehicles, and loitering munitions, that timeline is directly tied to crew survival.

The M992A3 ammunition carrier is therefore not an accessory but part of the tactical system. It carries and transfers 155mm ammunition under armor, allowing resupply closer to the gun line while reducing exposure compared with truck-based ammunition handling. In high-intensity operations, the limiting factor for a Paladin battery is often not the cannon itself but the ability to move ammunition, maintain communications, select viable position areas, and displace before enemy fires arrive. Army lessons from training areas in Europe also show that terrain, slope, concealment, road access, and communications coverage can constrain Paladin employment as much as range.

The contract also reflects an industrial-base calculation. BAE has previously identified production and support work across York, Pennsylvania; Anniston Army Depot, Alabama; Elgin, Oklahoma; Minneapolis, Minnesota; Sterling Heights, Michigan; Endicott, New York; and Aiken, South Carolina. Keeping that network active preserves welding, tracked-vehicle integration, turret refurbishment, electronics, and depot-level skills relevant not only to Paladin but also to other armored vehicle programs.

The main limitation remains range. A 39-caliber M109A7 cannot match the reach of 52-caliber systems being promoted for the Army’s future Mobile Tactical Cannon requirement, and the ERCA cancellation left the service without a near-term tracked 70 km cannon solution. The Paladin order, therefore, represents a risk-management choice: maintain a known, supportable tracked 155mm self-propelled howitzer for armored brigades while the Army tests whether newer wheeled or tracked artillery designs can provide greater range, faster automation, smaller crews, and better survivability under drone observation. For Congress and Army planners, the question is not whether the M109A7 is modern in every respect; it is whether enough reliable armored cannon artillery can be fielded now while the next fires system remains under evaluation.

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On June 18, 2026, the U.S. Defense Visual Information Distribution Service published imagery showing a Philippine Air Force T-129 ATAK attack helicopter operating during a close air support exercise at Col. Ernesto Rabina Air Base in the Philippines. Conducted in support of KAMANDAG 10, the activity involved U.S. Marines, U.S. Air Force personnel, Philippine forces, and Japanese Joint Terminal Air Controllers in a combined air-ground training environment.

The sequence highlights how the Philippine Air Force’s Turkish-made T-129 ATAK is being integrated into U.S.-supported Allied operations designed to strengthen maritime security, contested logistics, interoperability, and combined readiness across the Philippine archipelago. At a time when the Indo-Pacific security environment requires fast, coordinated, and credible response options, the participation of the ATAK adds a capable attack aviation asset to a broader Allied defense framework.

Related Topic: T-129 ATAK Attack Helicopter Demonstrates Strategic Value of Türkiye’s Attack Aviation for NATO at EFES 2026

The Philippine Air Force’s Turkish-made T-129 ATAK attack helicopter participated alongside U.S., Japanese, and Philippine forces in KAMANDAG 10, demonstrating enhanced Allied close air support interoperability and archipelagic defense capabilities across the Indo-Pacific (Picture Source: U.S. Air Force)

The close air support exercise conducted during KAMANDAG 10 placed the Philippine Air Force T-129 ATAK in a mission profile directly aligned with the operational needs of archipelagic defense. In a country composed of thousands of islands, military forces must be able to move, defend, resupply, and support units across dispersed terrain, coastal areas, airfields, and maritime approaches. In this environment, close air support is not only a tactical mission but a key enabler of territorial defense. The T-129 ATAK’s participation showed that the Philippine Air Force is training its attack helicopter fleet to provide responsive fire support for Allied forces operating throughout the archipelago, including in scenarios where ground units may require rapid air intervention in complex littoral or island terrain.

For the United States, KAMANDAG 10 reinforces a defense partnership that remains central to deterrence and stability in the Indo-Pacific. The exercise brings together more than 2,000 service members from the Philippines, the United States, Japan, and the Republic of Korea, with training distributed across Northern Luzon, Central Luzon, Palawan, Tawi-Tawi, Cavite, and Metro Manila. This geographical spread is important because it reflects the real challenge of operating across a wide maritime theater where forces must remain connected, mobile, and mutually supportive. By training alongside the Philippine T-129 ATAK, U.S. personnel help strengthen the procedures, communications, and coordination needed to employ close air support inside a combined battlespace. The U.S. military’s involvement is particularly significant because air-ground integration depends not only on aircraft performance, but also on target identification, airspace coordination, deconfliction, and disciplined command-and-control between pilots and controllers.

The T-129 ATAK is well suited to this type of mission because it was designed as a two-seat attack and tactical reconnaissance helicopter capable of close air support, armed reconnaissance, convoy escort, precision strike, and operations in demanding environments. Developed by Turkish Aerospace Industries, also known as TUSAŞ, the aircraft has a maximum takeoff weight of about 5,065 kg, a maximum cruise speed of 281 km/h, a range of 537 km, and an endurance of around three hours. Its weapons package can include a 20 mm turreted cannon, UMTAS or L-UMTAS anti-tank missiles, 70 mm rockets, CİRİT laser-guided missiles, and Stinger air-to-air missiles. For the Philippine Air Force, these characteristics give the ATAK an important role as a compact but heavily armed rotary-wing platform able to support troops in contact, protect maneuver forces, conduct armed overwatch, and deliver rapid effects against battlefield threats.

The helicopter’s role in KAMANDAG 10 also demonstrates the growing relevance of Türkiye’s attack aviation beyond NATO’s immediate geographic environment. Army Recognition previously reported that the T-129 ATAK demonstrated the strategic value of Türkiye’s attack aviation for NATO during EFES 2026, where it was employed in a live-fire environment supporting amphibious assault, air assault, close air support, armed overwatch, and precision strike missions. That earlier demonstration showed the ATAK operating as part of a joint fires architecture involving maneuver forces, sensors, airspace coordination, and precision weapons. In the Philippines, the same operational logic is now visible in an Indo-Pacific context, where the ATAK is being trained to support Allied forces in an island battlespace shaped by maritime security, coastal defense, and rapid force projection requirements.

This connection between EFES 2026 and KAMANDAG 10 gives the T-129 ATAK a broader strategic significance. In Türkiye, the helicopter demonstrated its value in a NATO-relevant amphibious and multi-domain combat scenario. In the Philippines, it is contributing to a U.S.-supported Allied training environment where interoperability is the central objective. This shows that the ATAK is not simply an export platform or a national attack helicopter, but a combat aviation system able to contribute to coalition readiness when properly integrated with Allied procedures. Its presence in Asia also reflects the expanding footprint of Turkish defense technology, while underlining how non-U.S. platforms can still reinforce U.S.-led security cooperation when operated by capable partners such as the Philippines.

The Philippine acquisition of the T-129 ATAK has already strengthened the country’s attack helicopter capability and now gives Manila a more credible air-support option for its Comprehensive Archipelagic Defense Concept. During KAMANDAG 10, U.S. commanders emphasized support for Philippine defense priorities, including territorial defense, coastal defense operations, and interoperability across dispersed nodes from Northern Luzon to Palawan and Tawi-Tawi. In that framework, the ATAK can play a valuable role by supporting airfield defense, island defense, landing-zone security, coastal maneuver, and armed overwatch for forces operating in exposed or isolated positions. Its ability to deliver precision fire and rapid response makes it particularly relevant in a theater where distance, terrain, and maritime geography can complicate the timely employment of heavier assets.

The appearance of the Philippine Air Force T-129 ATAK in a U.S.-supported close air support exercise during KAMANDAG 10 marks an important step in the evolution of Allied air-ground integration in the Indo-Pacific. For Manila, the helicopter strengthens attack aviation and gives the Armed Forces of the Philippines a flexible platform for archipelagic defense. For Washington, it adds another capable partner asset to a network of forces trained to operate together across complex maritime terrain. For Türkiye’s defense industry, it confirms that the ATAK’s strategic value is not limited to NATO’s southeastern flank, but extends into Asia, where close air support, interoperability, and rapid rotary-wing firepower are becoming increasingly important to regional deterrence and Allied readiness.

Written by Teoman S. Nicanci – Defense Analyst, Army Recognition Group

Teoman S. Nicanci holds degrees in Political Science, Comparative and International Politics, and International Relations and Diplomacy from leading Belgian universities, with research focused on Russian strategic behavior, defense technology, and modern warfare. He is a defense analyst at Army Recognition, specializing in the global defense industry, military armament, and emerging defense technologies.

General Atomics Electromagnetic Systems has secured a U.S. Army contract to flight-demonstrate a maneuvering 155 mm artillery projectile, the company announced on June 12, 2026, advancing a round designed to strike far beyond current cannon-artillery ranges while maintaining accuracy under GPS jamming or denial. The award matters because the Army needs precision fires that can survive electronic warfare and hit targets at distances once reserved for rockets and missiles.

The Long Range Maneuvering Projectile will now be tested under the Extended Range Artillery Projectile program, where General Atomics is competing against General Dynamics Ordnance and Tactical Systems and BAE Systems. By keeping multiple designs in play, the Army is preserving options for a future production round that could expand Western artillery reach, improve survivability, and strengthen long-range deterrence by fiscal year 2030.

Related topic: General Motors and Lockheed Explore Missile Parts Production to Boost U.S. Munitions Output.

General Atomics will demonstrate a maneuvering 155 mm Extended Range Artillery Projectile for the U.S. Army, aiming to give existing howitzers longer-range, GPS-resilient precision fire against artillery, air defense, armor, and other high-value battlefield targets (Picture source: General Atomics).

The armament itself is not a conventional high-explosive 155 mm shell with a guidance kit attached at the nose. General Atomics describes its projectile as a long-range, winged, maneuvering round engineered to extend range without rocket assist, while remaining compatible with legacy cannons and loaders. The published features include deployable wings and redundant guidance, which implies a design that obtains much of its additional reach from lift and controlled glide rather than from post-launch propulsion. That distinction matters because rocket assist usually trades internal volume, thermal margin, and mechanical complexity for range; a glide-body approach moves the engineering burden to aerodynamics, launch survivability, flight-control authority, and miniaturized guidance electronics.

The Army’s own technical discussion of extended-range 155 mm work explains the trade space in practical terms: range can be increased through post-launch propulsion, higher muzzle velocity, or more lift. For a maneuvering round, the most difficult event remains gun launch, where a 155 mm projectile can experience roughly 15,000 to 20,000 Gs, a shock environment severe enough to damage electronics, moving surfaces, energetic materials, and internal assemblies. This is why the August 2025 Yuma Proving Ground test is relevant beyond the fact that a round left the barrel. Fired from an M777 155 mm towed howitzer using M231 modular propelling charges, the General Atomics projectile demonstrated sabot separation, de-spin stabilization, wing deployment, and controlled descent, all of which are prerequisite events for a round that must transition from spin-stabilized gun launch to controlled aerodynamic flight.

Range figures need to be handled carefully. The Army’s ERAP requirement calls for at least 65 km from current 39-caliber howitzers and 70 km or more from 52-caliber guns, with compatibility across current and future 155 mm artillery weapons and Joint Ballistic Memorandum of Understanding standards. Separately, General Atomics has stated for its LRMP Common Round work that the design has the potential to defeat static and moving targets at 120 km and beyond, and Defense News reported that a version of the projectile struck targets more than 74 miles away after launch from an M777. Those numbers are not identical program thresholds; rather, they show the gap between the Army’s stated minimum requirement, the company’s design objective, and reported test performance.

Operationally, the most important point is that ERAP is designed to change the geometry of brigade and division fires without requiring every unit to wait for a new howitzer. A 39-caliber M777 or M109A7 normally gives the Army less reach than modern 52-caliber European self-propelled howitzers, while rocket artillery and tactical missiles are fewer in number and more expensive per shot. A precision 155 mm projectile capable of engaging targets at 65 km, 70 km, or farther allows artillery battalions to attack enemy self-propelled howitzers, multiple rocket launchers, short-range air-defense systems, command posts, logistics nodes, and moving armored vehicles from firing positions that are harder for enemy counter-battery systems to service quickly.

The tactical requirement is more demanding than range alone. The Army’s 2024 ERAP language specified a target-seeking 155 mm projectile able to operate in heavily degraded GPS conditions and to include a mode that does not use GPS. It also identified targets including infantry fighting vehicles, self-propelled howitzers, multiple rocket launchers, air defense targets, main battle tanks, and maritime targets of interest. This target list suggests the Army is not buying ERAP only as a deep-area bombardment round; it wants a munition that can prosecute time-sensitive and moving targets whose location may be uncertain when the shell is fired. In practice, that requires midcourse correction, terminal target discrimination or target updates, and enough maneuver authority to correct accumulated error over long flight times.

The non-GPS requirement is central to the munition’s battlefield relevance. A 155 mm projectile flying for tens of kilometers through a contested electromagnetic environment cannot assume continuous access to satellite navigation. Redundant guidance may combine inertial navigation, anti-jam GPS when available, and other undisclosed sensing or targeting inputs; the Army has not publicly defined the full architecture. The value for a field-artillery commander is resilience rather than elegance: if satellite signals are jammed, spoofed, or intermittently available, the round still has to arrive close enough to defeat a vehicle, radar, launcher, or command node with a limited warhead volume. That is a different problem from firing conventional high-explosive shells in volume against a grid square.

Industrial capacity is another constraint that should not be separated from performance. The Army’s market survey described production beginning at 300 projectiles per month in the first production year and increasing to 1,500 per month by the sixth production year, which is a demanding ramp for a precision round containing deployable structures, guidance electronics, control mechanisms, and a specialized airframe. General Atomics says it has invested in manufacturing capacity, scaling methods, and production infrastructure, including work tied to its Mississippi manufacturing base. If ERAP reaches procurement, cost and monthly output will determine whether it becomes a routinely available artillery munition or a small-inventory weapon reserved for selected targets.

The near-term significance of the award is therefore specific: the Army is testing whether 155 mm cannon artillery can regain operational depth through ammunition rather than by relying only on longer gun tubes or larger missile inventories. General Atomics’ approach offers a no-rocket-assist, winged, maneuvering projectile that promises range, compatibility, and GPS resilience, but it still has to prove repeatable accuracy, lethality, producibility, and affordability under Army test conditions. For U.S. commanders, the useful outcome would not be a spectacular single shot; it would be a munition available in sufficient numbers to make enemy artillery, air defense, armor, and logistics units vulnerable at distances they currently use to reduce their exposure to U.S. cannon fire.

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Written by Evan Lerouvillois, Defense Analyst.

Evan studied International Relations, and quickly specialized in defense and security. He is particularly interested in the influence of the defense sector on global geopolitics, and analyzes how technological innovations in defense, arms export contracts, and military strategies influence the international geopolitical scene.

The Malaysian Ministry of Defence signed a contract with KNDS and its local industrial partner Advanced Defence Systems on June 16, 2026, at the Eurosatory exhibition in Paris for the procurement of 18 Caesar 6x6 self-propelled howitzers. This acquisition establishes a new regimental echelon within the Malaysian Army, introducing long-range wheeled artillery capabilities to enhance strategic fire density and operational depth. The agreement also embeds technology transfer provisions to support local assembly, integration, and domestic life-cycle maintenance within Malaysia.

The contract specifies the acquisition of 18 Caesar 155 mm/52-calibre truck-mounted artillery systems configured as a complete military regiment capable of firing six rounds per minute at ranges exceeding 40 kilometers. Production parameters incorporate local industrial participation through Advanced Defence Systems in Segamat, Johor, to establish domestic maintenance, repair, and assembly competencies.

Related topic: KNDS unveils LORAS self-propelled howitzer to challenge rocket launchers with 100 km range

The Caesar can engage targets beyond 40 km with ERFB Base Bleed ammunition, while rocket-assisted ammunition extends these engagement distances beyond 55 km. (Picture source: Army Recognition)

On June 16, 2026, Malaysia signed a contract at Eurosatory for 18 Caesar 6x6 self-propelled howitzers, creating a new Malaysian Army wheeled artillery regiment and introducing a category of long-range firepower that had not previously existed in its force structure. The acquisition expands the earlier KNDS-ADS relationship that delivered 18 LG1 Mk III 105 mm towed howitzers assembled in Malaysia. The Eurosatory contract includes local assembly, technology transfer, and industrial participation through Advanced Defence Systems (ADS Sdn Bhd) in Segamat, Johor. More importantly, the order size indicates that Malaysia is not purchasing a small number of guns for evaluation or doctrine development, as eighteen Caesars correspond to a complete artillery regiment, meaning it represents both a modernization effort and a structural expansion of Malaysia's artillery reach, firepower, and industrial capacity.

Malaysia is acquiring 18 Caesar 6x6s, a self-propelled howitzer armed with a 155 mm/52-calibre gun mounted on a truck chassis weighing less than 18 tonnes in combat configuration. As most tracked 155 mm self-propelled guns fielded worldwide weigh between 35 and 50 tonnes, a vehicle below 18 tonnes can use a much larger proportion of the civilian road network, cross lighter bridges, and move with lower fuel consumption. Each Caesar carries 18 complete rounds onboard, giving the future regiment an immediate onboard stock of 324 ready rounds before any ammunition resupply vehicles are included. Crew requirements of three to five personnel also reduce manpower demands compared with many older artillery systems.

The vehicle can enter firing position in less than 45 seconds and leave in less than 45 seconds, allowing firing missions to be conducted with minimal exposure. Combined with a road speed exceeding 80 km/h and a cruising range above 600 km, the Caesar is therefore suited for operations across the Malaysian peninsula and East Malaysian territories. The principal capability increase generated by the acquisition is range. Malaysia's existing LG1 Mk III inventory belongs to the 105 mm artillery category, which is primarily designed for direct support of maneuver forces. The Caesar shifts Malaysian artillery into a different operational bracket. Using ERFB Base Bleed ammunition, the French howitzer can engage targets beyond 40 km, while rocket-assisted projectiles (RAPs) extend engagement distances beyond 55 km.

The practical effect is that a battery of Caesars can attack a target area several times larger than a battery equipped with 105 mm towed guns. Targets that previously required aircraft, rockets, or forward maneuver can now be engaged by Malaysian artillery. This includes logistics hubs, ammunition storage areas, brigade and divisional headquarters, artillery concentrations, transportation nodes, and infrastructure located deep behind frontline positions during operational-depth strike missions. The decision to procure 18 guns is particularly important when examining fire density. At the maximum firing rate of six rounds per minute, a regiment of 18 Caesars could theoretically deliver 108 rounds during the first minute of engagement.

Assuming standard high-explosive 155 mm ammunition weighing more than 40 kilograms per projectile, a single regimental salvo would place several tonnes of ordnance into the target area within minutes. The regiment's 324 onboard rounds provide a substantial initial combat load before external resupply is required. Compared with a formation equipped solely with 105 mm artillery, the increase is not simply one of range. It is also an increase in projectile mass, explosive content, lethality against hardened targets, and the volume of fires that can be concentrated against a single objective. For Malaysia, the acquisition is less about replacing one artillery system with another and more about creating a heavier echelon of fire support capable of influencing operations over a much larger battlespace. 

The Caesar's design reflects lessons that have become increasingly visible in contemporary artillery warfare. Counter-battery radars can determine firing locations within seconds. UAVs provide persistent observation over large sectors. Loitering munitions can attack artillery positions almost immediately after detection. Under these conditions, survivability increasingly depends on movement rather than armor. Unlike its predecessor, the AuF1, the Caesar was designed around that requirement. KNDS indicates that six rounds can be fired, and the vehicle can leave its firing position in approximately 100 seconds. A gun crew can therefore complete a fire mission and begin relocation before many counter-battery engagement cycles can be completed.

The relatively low vehicle weight also expands the number of routes available for movement and reduces the likelihood that artillery units become constrained by infrastructure limitations. The acquisition also introduces a significantly broader ammunition ecosystem than Malaysia has previously possessed. The Caesar can employ NATO-standard 39-calibre and 52-calibre ammunition families, including ERFB extended-range rounds, VLAP projectiles, BONUS sensor-fuzed munitions, Excalibur precision-guided shells, and SPACIDO-corrected ammunition. This compatibility provides multiple pathways for future capability growth without requiring modifications to the gun itself. Precision-guided ammunition enables engagement of point targets with fewer rounds.

Extended-range ammunition expands coverage areas. Sensor-fuzed munitions increase effectiveness against armored vehicles. The fire control architecture integrates an inertial navigation unit, ballistic computer, muzzle velocity radar, and automated laying functions while remaining compatible with wider command-and-control networks. The industrial component may ultimately prove as important as the military one. Assembly of all 18 systems will be conducted through ADS facilities in Segamat, Johor, extending an industrial relationship first established through the local assembly of 18 LG1 Mk III howitzers. Malaysia is therefore acquiring more than artillery vehicles. It is acquiring competencies linked to integration, assembly, maintenance, repair, and long-term sustainment.

Technology transfer provisions provide the basis for domestic support activities throughout the service life of the fleet and reduce dependence on overseas depot-level maintenance. In the Malaysian case, localization is incorporated directly into the programme from the beginning, making the contract both a force-modernization initiative and an industrial development project. Malaysia becomes the fifteenth Caesar customer at a time when the system has experienced rapid international growth. Between 2022 and 2026, cumulative orders expanded from fewer than 200 systems to nearly 800.

Major operators include Saudi Arabia with 132 systems, Ukraine with more than 120 committed or delivered, the Czech Republic with 62 Caesar 8x8 systems, Indonesia with 56 and Morocco with 36. Within Asia, Malaysia joins Indonesia and Thailand as operators of the system. Malaysia's future fleet of 18 guns will be three times larger than Thailand's inventory of six systems and equivalent in size to the fleets ordered by Lithuania, Croatia, and Slovenia. The Malaysian contract also increases the number of Caesar howitzers contracted across Asia to more than 110 units. From an industrial perspective, Malaysia enters a much smaller category of customers that combine acquisition with local assembly and technology transfer, a group that in Asia previously consisted primarily of Indonesia, within one of the fastest-growing Western artillery user communities.

Written by Jérôme Brahy

Jérôme Brahy is a defense analyst and documentalist at Army Recognition. He specializes in naval modernization, aviation, drones, armored vehicles, and artillery, with a focus on strategic developments in the United States, China, Ukraine, Russia, Türkiye, and Belgium. His analyses go beyond the facts, providing context, identifying key actors, and explaining why defense news matters on a global scale.

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German defense manufacturer Diehl Defence has entered negotiations with Ukrainian company Fire Point to establish a domestic production line for the FP-5 Flamingo cruise missile within Germany. The proposed industrial partnership aims to integrate Diehl’s advanced infrared and multi-mode seeker technologies to significantly upgrade the missile's terminal guidance system under intense electronic warfare conditions. This cooperative framework emerges as European states reassess long-range conventional deterrence requirements following the cancellation of planned United States ground-based missile deployments in the region.

The FP-5 Flamingo is a ground-launched strategic strike weapon capable of delivering a 1,150 kg warhead over a maximum range of 3,000 km using a simplified, high-volume production design. Initial manufacturing data reflect a rapid production scale-up by Fire Point, reaching an output of approximately three missiles per day by early 2026 to target deep military-industrial infrastructure.

Related topic: Ukraine's new FP-9 ballistic missile to target Moscow's energy infrastructure by summer 2026

Manufacturing inside Germany would reduce the FP-5's exposure to strikes against Ukrainian facilities while providing access to advanced industrial processes, advanced seekers, certification procedures, and long-term sustainment networks. (Picture source: Army Recognition)

On June 11, 2026, the Financial Times revealed discussions between Diehl Defence and Fire Point around a potential German production line for the Ukrainian FP-5 Flamingo cruise missile, with Diehl Defence chief executive Helmut Rauch indicating that they may provide a significantly more advanced seeker than the one currently used. If implemented, the arrangement would represent the first known case of a Ukrainian strategic strike weapon being manufactured inside a NATO member state's industrial base. The project emerges at a moment when Germany is reassessing its long-range strike requirements amid uncertainty over future U.S. ground-based missile deployments in Europe, as well as over a planned purchase of 400 Tomahawk missiles.

For Berlin, the attraction is not simply the missile's range, but also how European NATO members should develop independent conventional deep-strike capabilities. The FP-5 combines a 3,000 km reach, a warhead weighing up to 1,150 kg, a maximum takeoff weight of 6,000 kg, and a production concept built around relatively simple manufacturing methods, a niche that currently has few direct Western equivalents. The potential cooperation would consequently combine Fire Point's experience in wartime production and operational employment with Diehl's expertise in missile integration, sensors, guidance systems, electronics, testing, and industrial-scale manufacturing. Germany's interest in the FP-5 is closely tied to changes in the European security environment since 2022.

Russian forces have repeatedly employed long-range ground-launched strike systems against targets across Ukraine while maintaining missile forces in Kaliningrad and western Russia. This has increased interest within Europe in conventional systems capable of holding strategic targets at risk without relying exclusively on stealth fighter jets. From central Europe, a missile with a 3,000 km range could theoretically reach a substantial portion of European Russia. Unlike many future European missile concepts that remain in development, the FP-5 already exists, entered serial production during 2025, and has been used operationally. This is important because Western missile programs often require development cycles measured in years or decades.

The FP-5 offers Germany access to a weapon that has already moved beyond the prototype stage and into manufacturing, even if operational experience remains relatively limited. Fire Point revealed the missile in 2025 following a development cycle measured in months rather than years. Production reportedly began at roughly 30 missiles per month before expanding toward a stated objective exceeding 200 missiles monthly. By early 2026, company leadership indicated output had reached approximately three missiles per day. The missile's physical configuration explains how such production goals became feasible. The FP-5 uses a fixed straight wing instead of folding wing assemblies, while its turbofan engine is mounted externally above the fuselage rather than integrated internally. The airframe also uses a relatively straightforward design that prioritizes manufacturability over aerodynamic optimization.

These choices increase overall size and reduce elegance from an engineering perspective, but they simplify assembly, reduce part counts, and shorten production timelines. The missile is launched from a truck-based transporter-launcher using a booster-assisted takeoff, and because the launcher resembles a commercial truck during transportation, it can be concealed within ordinary road traffic until launch preparations begin. The maximum takeoff weight of the FP-5 Flamingo reaches 6,000 kg, and the warhead weighs up to 1,150 kg. That warhead weight is one of the most important characteristics of the system because it directly influences target selection. A missile carrying over one metric ton of explosive payload is not optimized for destroying a single radar vehicle or individual armored target.

It is intended to damage production halls, storage depots, industrial infrastructure, hardened facilities, command centers, electrical installations, fuel infrastructure, and other large fixed targets. The missile cruises at roughly 650-700 km/h, can reach a maximum speed of 950 km/h, and has a flight altitude that varies between 20 m and 10 km depending on the mission profile. Endurance reaches roughly four hours, while launch preparation generally requires around 20 minutes. This combination of long endurance, large payload, and strategic range makes it well optimized for attacks against fixed targets deep inside enemy territory. The guidance architecture, similarly, reflects a deliberate tradeoff between cost and sophistication. Navigation relies primarily on satellite guidance supported by inertial navigation.

Under favorable conditions, circular error probable is estimated at approximately 14 m. The missile does not incorporate terrain contour matching systems comparable to TERCOM, nor does it use image-matching technologies comparable to DSMAC. These omissions reduce complexity and cost but increase reliance on satellite navigation during the terminal phase of flight. This is precisely where Diehl's potential contribution becomes strategically important. The company has extensive experience with imaging infrared seekers through the IRIS-T missile and also possesses an expertise in semi-active laser and passive anti-radiation guidance technologies. Helmut Rauch specifically identified seeker technology as a potential area of cooperation.

A more advanced seeker would significantly improve the FP-5's terminal accuracy under electronic attack conditions and enable the missile to identify and strike a specific building, production hall, warehouse, command post, or other designated aimpoint within a large industrial or military facility rather than simply impacting somewhere within the broader target area. Several pathways exist for upgrading terminal guidance. An imaging infrared seeker would likely be the most practical option because it aligns closely with Diehl's existing technological base. Such a seeker could identify thermal contrasts generated by machinery, power systems, industrial processes, and large structures. An electro-optical seeker could enable visual target recognition during daylight and favorable weather conditions.

Passive RF guidance could support attacks against emitting radar systems, electronic warfare nodes, and communications infrastructure. Active radar guidance remains technically feasible but would introduce additional cost and electronic signatures. A multi-mode seeker combining infrared, electro-optical, and passive RF inputs would provide the greatest resistance to countermeasures. The challenge is economic. The FP-5 derives much of its attractiveness from a cost often estimated at approximately $500,000 per missile, when a Tomahawk costs roughly $3.6 million. Integrating advanced sensors improves performance, but excessive cost growth would undermine the missile's core production concept. 

To date, approximately 23 publicly known launches of Flamingo missiles have occurred. Six missiles reportedly reached their target areas. Two achieved confirmed direct hits and one additional success remains disputed. These figures indicate that the missile is still maturing operationally and faces substantial challenges when penetrating layered air defense networks. However, the most revealing aspect is target selection. The FP-5 has not been employed as a routine battlefield strike weapon. Instead, it has been reserved for targets with strategic or military-industrial significance. Known targets include an FSB facility in Crimea, the Skif-M facility involved in the production of Su-34, Su-35, and Su-57 jets, the Kapustin Yar missile test range, the Kotluban GRAU ammunition depot, the Votkinsk Machine Building Plant, the Promsintez explosives factory, and the VNIIR-Progress electronics facility.

Every target falls into one of four categories: missile production, missile testing, military-industrial manufacturing, or ammunition infrastructure. Production capacity remains constrained primarily by engine availability. Like the FP-9, Fire Point leadership has repeatedly identified engines as the principal bottleneck affecting output, as current Flamingo missiles rely heavily on AI-25s. Scaling production beyond Ukrainian facilities requires reliable access not only to propulsion systems but also to electronics, navigation components, and testing infrastructure. German manufacturing would address several of these constraints simultaneously.

It would reduce exposure to Russian strikes against Ukraine's facilities, provide access to European supply chains, improve electronics integration, expand testing capacity, and support certification for potential export customers. The significance of the project, therefore, extends beyond the missile itself. It represents a potential transition from wartime production focused on immediate operational requirements toward a multinational industrial framework capable of supporting sustained production over many years. If production is established in Germany and advanced seekers are successfully integrated, the FP-5 would occupy a unique position within Europe's long-range strike inventory.

The missile would combine a 3,000 km range, a 1,150 kg warhead, a cost measured in hundreds of thousands rather than millions of dollars, and production methods designed for relatively high output. The central question is whether these characteristics can be preserved while introducing substantially more sophisticated terminal guidance. Maintaining that balance will determine whether the missile remains primarily a large-volume industrial strike weapon or evolves into a more precise system capable of reliably engaging specific structures inside heavily defended military-industrial complexes.

Written by Jérôme Brahy

Jérôme Brahy is a defense analyst and documentalist at Army Recognition. He specializes in naval modernization, aviation, drones, armored vehicles, and artillery, with a focus on strategic developments in the United States, China, Ukraine, Russia, Türkiye, and Belgium. His analyses go beyond the facts, providing context, identifying key actors, and explaining why defense news matters on a global scale.

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GM and Lockheed Martin are exploring a partnership that could bring commercial automotive manufacturing into U.S. missile production, expanding the industrial base behind key weapons programs at a time of growing concern over stockpile levels and surge capacity. Announced on June 16, 2026, the discussions could help accelerate output of critical missile and interceptor components while strengthening the resilience of the U.S. defense supply chain.

The proposed arrangement would allow GM Defense to apply high-volume manufacturing expertise to Lockheed Martin’s missile portfolio, improving production readiness and reducing bottlenecks in weapons delivery. The move reflects a broader Pentagon effort to leverage commercial industry capabilities to support munitions production, a priority increasingly linked to deterrence, sustained combat operations, and long-term military readiness.

Related topic: US Department of War renames US Indo-Pacific Command back to US Pacific Command.

GM and Lockheed Martin are discussing a plan for GM Defense to manufacture selected missile and interceptor components, aiming to ease U.S. munitions production bottlenecks and support higher output of systems such as PAC-3 MSE, THAAD, GMLRS, PrSM, JASSM, and LRASM (Picture source: U.S. Army).

The important point for defense planners is that GM is unlikely to build complete missiles in the near term. The more realistic contribution is at the subcomponent level: machined housings, structural assemblies, brackets, electronic enclosures, launcher-related hardware, cable-management parts, actuator-adjacent components, thermal-management items, and other repeatable parts that must be produced to certified tolerances. GM could manufacture commonly used parts for Lockheed weapons, although the companies are still deciding which components GM might make. That distinction matters because missile output is often limited not by one final assembly line, but by many small suppliers producing qualified parts at relatively low annual volumes.

Lockheed Martin’s most exposed armament lines include air-defense interceptors and precision-strike missiles. The PAC-3 MSE interceptor is a direct example. It is used with Patriot fire units to defeat tactical ballistic missiles, cruise missiles, and aircraft by hit-to-kill impact rather than relying primarily on blast fragmentation. The MSE variant uses a larger dual-pulse solid rocket motor, larger control fins, upgraded actuators, and thermal batteries to improve altitude, range, and maneuverability. Lockheed delivered 620 PAC-3 MSE interceptors in 2025, more than 20 percent above the previous year, and a seven-year framework agreement is intended to raise annual capacity from about 600 to 2,000 interceptors.

That production target explains why a company such as GM becomes relevant. A PAC-3 MSE interceptor requires precision structural parts, propulsion-related casings, guidance-section hardware, flight-control assemblies, power components, and certified electronics interfaces. The most sensitive items, including seekers, rocket motors, and energetic materials, remain specialized defense-industrial work. But if GM can absorb less sensitive, high-repeatability manufacturing, Lockheed’s established missile suppliers may be able to concentrate on the parts that require unique defense tooling, controlled materials, or classified production processes.

THAAD is another likely area of relevance because Lockheed is also under pressure to expand production of Terminal High Altitude Area Defense interceptors. THAAD is designed to engage short-, medium-, and intermediate-range ballistic missiles in the terminal phase, using a hit-to-kill interceptor supported by launchers, fire control, communications equipment, and radar. Lockheed and the U.S. Department of Defense announced in January 2026 a framework to quadruple THAAD interceptor production from the current 96 per year over seven years, with an initial contract expected through fiscal year 2026 appropriations and related funding.

From an operational perspective, PAC-3 MSE and THAAD address different layers of the missile-defense problem. PAC-3 MSE gives Patriot batteries a lower-tier terminal defense against aircraft, cruise missiles, and ballistic missiles threatening bases, ports, command centers, and cities. THAAD provides a higher-altitude terminal intercept option against ballistic missiles before they descend into the defended area. Both require reliable interceptors in quantity, not just technically capable missiles in small stocks. In a regional missile campaign, the tactical issue becomes magazine depth, reload availability, and replacement timelines after repeated salvos.

Lockheed’s ground-strike munitions create a separate but related capacity problem. GMLRS rockets fired from HIMARS and M270 launchers provide all-weather precision fires beyond 70 km, while Extended-Range GMLRS reaches about 150 km. PrSM, the U.S. Army’s next-generation long-range precision missile, carries two rounds per launch pod and has a stated range of 60 to 499+ km. These weapons allow artillery units to hit command posts, air-defense radars, logistics nodes, bridges, ammunition depots, and time-sensitive targets without committing aircraft. GMLRS production is being raised to 14,000 rockets per year, and Army demand has continued to grow since Ukraine demonstrated the operational value of mobile precision fires.

Air-launched munitions add another data point. JASSM and LRASM are part of the AGM-158 family, with JASSM-ER reaching more than 500 nautical miles and carrying a 1,000-lb penetrating blast-fragmentation warhead; LRASM provides long-range anti-ship strike at more than 200 nautical miles. These missiles require complex airframes, guidance kits, mission computers, wings, actuators, warhead integration, and low-observable shaping. A $9.5 billion JASSM/LRASM contract and Lockheed’s broader $9 billion investment through 2030 in munitions expansion show that the issue is not a single emergency order but a structural increase in demand.

The timing is also political and budgetary. On June 11, 2026, President Donald Trump invoked the Defense Production Act for munitions supply chains, citing limited production capacity, fragile supply chains, long-lead dependencies, and bottlenecks in solid rocket motors, igniters, and guidance systems. That action gives the Pentagon more room to coordinate voluntary agreements with industry, including nontraditional manufacturers, while remaining within legal boundaries.

For Congress, the GM-Lockheed discussions should be assessed less as an automaker entering the weapons business and more as a test case for industrial mobilization. The measurable questions are whether GM Defense can qualify parts fast enough, whether commercial plants can meet military traceability and cybersecurity rules, whether production cost falls without creating new inspection burdens, and whether the arrangement actually increases missile deliveries rather than shifting bottlenecks elsewhere. The tactical value will only appear if more PAC-3 MSE, THAAD, GMLRS, PrSM, JASSM, or LRASM rounds reach units faster. Until then, the arrangement is best understood as a practical attempt to add industrial depth to the U.S. munitions base, not as a substitute for expanded propulsion, seeker, and energetic-material production.

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Written by Evan Lerouvillois, Defense Analyst.

Evan studied International Relations, and quickly specialized in defense and security. He is particularly interested in the influence of the defense sector on global geopolitics, and analyzes how technological innovations in defense, arms export contracts, and military strategies influence the international geopolitical scene.

The U.S. Department of War announced on June 16, 2026, that U.S. Indo-Pacific Command will officially revert to its historic designation, U.S. Pacific Command, restoring the original nomenclature utilized from 1947 until 2018. Officials confirmed that the reversal is entirely an institutional name change, leaving the command's existing operational footprint, troop posture, alliance commitments, and geographical scope completely unaltered. The decision aims to emphasize the institutional heritage and Cold War origins of the combatant command while maintaining the same integrated regional defense strategy across both the Pacific and Indian Oceans.

The restored U.S. Pacific Command maintains its status as the largest geographic combatant command, encompassing approximately 375,000 personnel and an area of responsibility spanning 100 million square miles from the U.S. West Coast to India's western border. This bureaucratic reversion undoes a May 30, 2018, decision by the Pentagon without modifying the underlying force structure, deployment patterns, or strategic focus on maritime security and regional deterrence.

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The U.S. Pacific Command remains the largest U.S. geographic command, covering roughly 100 million square miles, about 52% of the Earth’s surface, 38 countries and territories, and containing roughly 60% of the world’s population. (Picture source: US DoD)

On June 16, 2026, the U.S. Department of War announced that U.S. Indo-Pacific Command will return to its pre-2018 designation, U.S. Pacific Command, restoring the title used by the command from January 1, 1947, when it was established under President Harry S. Truman, until May 30, 2018, when it was renamed U.S. Indo-Pacific Command under Secretary of Defense James Mattis. The command will remain headquartered at Camp H.M. Smith, Hawaii, and its area of responsibility will also remain unchanged, stretching from the U.S. West Coast to India’s western boundary and from the Arctic to Antarctica.

The restored U.S. Pacific Command remains the largest U.S. geographic combatant command, covering roughly 100 million square miles, about 52% of the Earth’s surface, 38 countries and territories, and a theater containing roughly 60% of the world’s population. Approximately 375,000 military personnel, civilian personnel, and supporting organizations remain assigned across the theater. No changes have been announced to force posture, command relationships, operational plans, component commands, alliance commitments, forward basing, or contingency responsibilities, making the decision primarily a change in institutional nomenclature rather than a change in U.S. military posture across the Pacific and Indian Ocean regions. 

The restoration reverses the May 30, 2018, decision that replaced U.S. Pacific Command with U.S. Indo-Pacific Command during a change-of-command ceremony overseen by Secretary of Defense James Mattis. The 2018 decision reflected a specific strategic calculation: Washington was increasingly treating the Pacific and Indian Oceans as a connected military and economic theater, while India’s position in U.S. regional planning was becoming more relevant to maritime security, China-related contingency planning, and defense cooperation with Japan and Australia. The Indo-Pacific label also matched the broader terminology used by Washington, Tokyo, Canberra, and New Delhi as the Quad became more visible and as China’s naval activity expanded beyond the Western Pacific into the Indian Ocean.

The 2026 reversal does not undo those geographic realities, as the command still includes the Pacific Ocean, much of the Indian Ocean, Northeast Asia, Southeast Asia, Oceania, Antarctica, and parts of South Asia. It instead restores the title used during the Cold War, the post-Cold War period, and most of the Global War on Terror, while keeping the same operational missions. The command’s geographic scale explains why the name change does not reduce its military relevance. USPACOM covers the main maritime approaches linking the U.S. West Coast, Hawaii, Guam, Japan, South Korea, the Philippines, Australia, Southeast Asia, and the Indian Ocean. Its area also includes five U.S. treaty alliances: Japan, South Korea, the Philippines, Australia, and Thailand.

These alliances create a network of access points, logistics routes, maintenance hubs, ports, airfields, training areas, and command nodes that support U.S. operations across Northeast Asia, Southeast Asia, and Oceania. The theater also includes several maritime chokepoints connecting East Asia, Southeast Asia, and the Indian Ocean, including routes central to energy flows, container traffic, naval deployments, and crisis reinforcement. A command responsible for 52% of the Earth’s surface must plan across extreme distances, multiple climate zones, major archipelagos, dense commercial sea lanes, and several nuclear-armed or missile-capable states, which makes logistics, air refueling, sealift, submarine access, missile defense, and forward basing central to its operational value. 

USPACOM’s force structure remains organized around five major service components, each contributing a different part of the theater’s combat power. U.S. Pacific Fleet remains the command’s largest military component, with approximately 200 ships and submarines, five aircraft carrier strike groups, and nearly 1,100 naval aircraft. This gives the command carrier aviation, amphibious shipping, surface combatants, ballistic missile defense destroyers, logistics vessels, attack submarines, and Tomahawk-capable strike assets positioned or allocated for Pacific operations. Pacific Air Forces adds more than 420 permanently assigned aircraft, providing the main U.S. forward-based air combat capability for contingencies involving China, North Korea, and wider regional escalation.

U.S. Army Pacific fields approximately 106,000 personnel and has become increasingly relevant with its land-based long-range fires and air defense systems, including HIMARS, Patriot PAC-3, THAAD, and Typhon missile systems. Marine Forces Pacific controls I Marine Expeditionary Force and III Marine Expeditionary Force, more than 640 aircraft, and forces oriented toward expeditionary operations across maritime terrain. U.S. Space Forces Indo-Pacific provides theater-level space support and integration, linking missile warning, satellite communications, navigation, targeting support, and command functions to regional operations. The forward presence under USPACOM remains concentrated in a small number of politically and militarily decisive locations.

Japan hosts the largest concentration of U.S. forces outside the continental United States and is central to operations in the East China Sea, Taiwan Strait, Korean Peninsula, and Western Pacific. The Seventh Fleet remains forward deployed in Japan, giving the U.S. Navy a standing presence close to the First Island Chain rather than relying only on ships deploying from the continental United States or Hawaii. South Korea remains home to major ground and air formations, including U.S. Forces Korea headquartered at Camp Humphreys, with forces positioned primarily for deterrence against North Korea but also integrated into wider theater planning. Guam continues to serve as a logistics, airpower, missile defense, and submarine hub, with regular Bomber Task Force rotations involving B-1B, B-2, and B-52 aircraft.

Major U.S. military concentrations also remain in Hawaii, Singapore, and Australia, while the Philippines has expanded U.S. access arrangements through the Enhanced Defense Cooperation Agreement. Special Operations Command Pacific retains theater-wide special operations responsibilities, and more than half of the U.S. Navy’s attack submarine force remains allocated to Pacific operations, a major factor in America's undersea deterrence and strike planning. The restored PACOM name carries historical weight because the command shaped much of the U.S. military architecture still used in Asia. During the Cold War, USPACOM directed U.S. military activities across the Pacific while managing deterrence against Soviet naval and air forces operating in the Pacific basin.

It supported operations during the Korean War and the Vietnam War, both of which required sustained U.S. logistics, airpower, naval movement, and allied coordination across large distances. After 1991, the command remained the main U.S. headquarters for regional crises, alliance management, military exercises, and humanitarian assistance and disaster relief operations across the Asia-Pacific region. Its long-term role helped establish a durable posture built around forward-deployed naval forces in Japan, ground and air forces in South Korea, logistics infrastructure in Guam and Hawaii, rotational access in Australia, and cooperation with treaty allies and security partners.

Many of those arrangements remain in place because they solve practical military problems: response time, sustainment, aircraft range, submarine access, munitions storage, repair capacity, and command continuity. The removal of “Indo” from the title changes the political language around the command but not the military geography assigned to it. The Indo-Pacific concept became central to U.S. strategy as India’s importance increased, particularly because India sits astride the Indian Ocean and outside the U.S. alliance system while maintaining expanding defense cooperation with Washington. The 2018 renaming linked the Pacific and Indian Ocean theaters under one strategic label, but the 2026 restoration of Pacific Command removes the explicit reference to India from the command title.

That does not move India out of the command’s area of responsibility, which still extends to India’s western border, and it does not change the command’s responsibility for much of the Indian Ocean. India remains outside any formal U.S. alliance structure, unlike Japan, South Korea, the Philippines, Australia, and Thailand, but U.S.-India military engagement and Quad activities continue without announced changes. The practical distinction is that the command’s title again emphasizes the Pacific, while its operational map still forces planners to treat the Pacific and Indian Ocean regions as connected spaces for maritime security, logistics, deterrence, and China-related planning. The most important operational implications remain centered on China, because USPACOM is responsible for the primary theater of U.S. military competition with Beijing.

Its core planning areas include the Taiwan Strait, East China Sea, South China Sea, and Western Pacific, all of which require rapid access to airfields, ports, logistics hubs, undersea routes, missile defense coverage, and allied facilities. Major posture initiatives remain concentrated along the First and Second Island Chains, where U.S. forces seek to disperse aircraft, sustain naval operations, protect bases, preserve access, and complicate Chinese targeting. Recent investments in long-range precision strike, Guam's integrated air and missile defense, and distributed maritime operations remain relevant because the renaming does not change the missile, naval, air, and logistics problems associated with a high-end contingency.

In a major conflict, PACOM could potentially draw on three to five carrier strike groups, 700 to 1,000 tactical aircraft through assigned and reinforcing forces, and an attack submarine force exceeding 35 units, depending on deployment cycles. Long-range strike options would include Tomahawk-equipped submarines and surface combatants, as well as bomber forces rotating through Guam. Integrated missile defense would combine Aegis destroyers, THAAD batteries, Patriot systems, and emerging Guam defenses, while space, cyber, ISR, and strategic support capabilities would be integrated into theater operations. The organizational effect of the decision is therefore limited, but the strategic signal is not meaningless.

The command on June 17, 2026, retains the same headquarters, personnel levels, component commands, service forces, operating geography, alliance structure, war plans, and deployment patterns it had before the announcement. Guam remains a strategic hub for logistics, airpower, bomber rotations, submarine operations, missile defense, fuel storage, and munitions movement. Australia continues to support rotational deployments and force dispersal initiatives, while expanded access in the Philippines strengthens U.S. options along the First Island Chain and near the South China Sea.

Japan and South Korea remain the most important forward force concentrations, and the Seventh Fleet remains positioned in Japan as the main forward naval force in the Western Pacific. The command returns to a title used for more than 70 years before 2018, but its practical military role remains defined by geography, adversary capabilities, allied access, distance, logistics, undersea warfare, air defense, and long-range strike. The main significance lies in how Washington frames the region at the senior military-command level, while the measurable military effects are expected to remain limited unless future policy decisions alter force posture, basing access, or alliance commitments.

Written by Jérôme Brahy

Jérôme Brahy is a defense analyst and documentalist at Army Recognition. He specializes in naval modernization, aviation, drones, armored vehicles, and artillery, with a focus on strategic developments in the United States, China, Ukraine, Russia, Türkiye, and Belgium. His analyses go beyond the facts, providing context, identifying key actors, and explaining why defense news matters on a global scale.

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General Atomics Electromagnetic Systems has secured a U.S. Army contract to demonstrate a maneuvering long-range 155 mm projectile under the Extended Range Artillery Projectile (ERAP) program, a development announced on June 12, 2026, that could significantly expand the reach and survivability of U.S. artillery in contested battlespaces. By combining extended range, precision guidance, and resilience against GPS disruption while remaining compatible with existing howitzers, the effort targets a critical requirement for maintaining artillery overmatch in future high-intensity warfare.

The ERAP projectile is designed to maneuver in flight and strike targets at far greater distances than conventional artillery rounds while retaining accuracy in electronic warfare environments. If successful, it could provide brigade and division commanders with a cost-effective precision fires capability that bridges the gap between traditional artillery shells and long-range missile systems, reinforcing the Army’s broader push toward more survivable and flexible battlefield firepower.

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General Atomics has won a U.S. Army contract to demonstrate a maneuvering 155 mm Extended Range Artillery Projectile (ERAP) designed to deliver long-range precision strikes from existing howitzers, even in GPS-denied combat environments (Picture Source: General Atomics)

On June 12, 2026, General Atomics Electromagnetic Systems announced that it had received a U.S. Army contract to demonstrate a long-range maneuvering 155 mm projectile under the Extended Range Artillery Projectile program. The award comes as the U.S. Army seeks to restore artillery overmatch after years of renewed focus on large-scale combat operations, contested airspace, electronic warfare, and counter-battery threats. By combining extended range, precision guidance, and compatibility with existing artillery platforms, the program addresses one of the most urgent gaps in modern land warfare. The development is significant because it could allow U.S. self-propelled howitzers to strike deeper, survive longer, and remain effective even when GPS signals are degraded or denied.

The Extended Range Artillery Projectile, or ERAP, is intended to validate a new generation of maneuvering 155 mm ammunition able to reach significantly greater distances than current cannon artillery rounds while maintaining precision against targets in complex operational environments. Under the contract, General Atomics Electromagnetic Systems will conduct flight demonstrations to prove the projectile’s ability to maneuver after launch, remain accurate in GPS-contested conditions, and support the Army’s objective of achieving an Initial Operational Capability by fiscal year 2030. The award also places the company in position as a potential production source for advanced munitions designed to extend the operational reach of U.S. Army self-propelled howitzers without requiring an immediate replacement of the entire artillery fleet.

The projectile described by General Atomics differs from conventional ballistic artillery ammunition because it is engineered to generate lift and adjust its trajectory during flight. According to the company, the design uses deployable wings and advanced redundant guidance systems, while remaining compatible with legacy cannons and loaders. This point is operationally important: instead of relying only on new artillery vehicles or longer barrels, the Army can pursue a munition-centered approach that extracts more capability from existing 155 mm systems. The projectile is also designed to deliver extended range without rocket assist, a feature that could simplify integration, reduce dependence on propulsion components inside the projectile body, and preserve design space for guidance, control, and payload functions.

This contract also reflects a broader shift in U.S. artillery modernization. After past efforts to increase range through new cannon systems faced technical and acquisition challenges, the Army has increasingly focused on the projectile itself as a path to regain range, accuracy, and tactical relevance. Long-range cannon ammunition must survive extreme gun-launch conditions, including very high acceleration, heat, pressure, spin, and vibration, before its guidance and control systems can function in flight. For a maneuvering 155 mm projectile, this means that electronics, wings, control surfaces, structural components, and guidance packages must operate reliably after being fired from a gun tube, not from a missile launcher. The ERAP effort therefore represents both a munition program and a materials, manufacturing, and survivability challenge.

The strategic implications extend beyond technical performance. In a potential conflict against a peer or near-peer adversary, U.S. ground forces would face dense air defenses, electronic warfare, long-range fires, drones, counter-battery radars, and mobile armored formations. Airpower may not always be immediately available to strike targets deep behind the front line, particularly in anti-access and area-denial environments. A precision 155 mm projectile able to fly farther and maneuver toward its target would give brigade and division commanders an additional tool to engage artillery batteries, air defense systems, armored vehicles, command nodes, logistics positions, and moving targets at greater standoff distances. This could reduce exposure for U.S. artillery units while complicating an adversary’s ability to mass forces, relocate launchers, or operate from areas previously considered beyond the reach of cannon fire.

For the U.S. Army, the importance of ERAP lies in the balance between range, cost, mass, and survivability. Missiles such as PrSM, HIMARS-launched rockets, and other long-range strike systems provide powerful effects, but they are more expensive and generally available in smaller quantities than artillery ammunition. Cannon artillery remains essential because it can deliver repeated fires at scale, sustain pressure on enemy formations, and support maneuver forces across extended operations. If ERAP can provide missile-like precision at artillery scale, it could help fill the space between traditional 155 mm shells and higher-end missile systems, giving commanders more flexible options for targets that require precision but not necessarily the cost or range of a tactical missile.

The industrial dimension is also central to the award. General Atomics has stated that it invested early in the technologies needed for the projectile and has been expanding advanced manufacturing infrastructure in Mississippi, including its Manufacturing Center of Excellence in Tupelo. The company describes this facility as designed to support surge capacity through automation, modular production processes, and new materials. This matters because the war in Ukraine has shown that artillery effectiveness depends not only on individual weapon performance but also on industrial endurance, ammunition availability, and the ability to replenish stocks during prolonged conflict. A future ERAP production line would therefore support both operational capability and the U.S. defense industrial base, particularly if the Army seeks to field the munition in meaningful quantities before the end of the decade.

The General Atomics ERAP award marks a decisive step in the U.S. Army’s effort to reshape cannon artillery for future high-intensity warfare. By pursuing a maneuvering 155 mm projectile that can fly farther, remain accurate in GPS-degraded environments, and operate from existing artillery systems, the Army is seeking a practical route to restore long-range fires overmatch without waiting for an entirely new generation of guns. If the flight demonstrations validate the technology and the industrial base can scale production, ERAP could become one of the key munitions linking traditional field artillery with the precision-strike demands of modern multi-domain operations, giving U.S. forces a deeper, more survivable, and more flexible fires capability by 2030.

Written by Teoman S. Nicanci – Defense Analyst, Army Recognition Group

Teoman S. Nicanci holds degrees in Political Science, Comparative and International Politics, and International Relations and Diplomacy from leading Belgian universities, with research focused on Russian strategic behavior, defense technology, and modern warfare. He is a defense analyst at Army Recognition, specializing in the global defense industry, military armament, and emerging defense technologies.

The Emirati advanced technology and defense conglomerate EDGE Group launched EDGE Europe on June 11, 2026, establishing a registered commercial entity with a headquarters in Paris and an engineering and manufacturing facility in Bordeaux. This institutional milestone transitions the company from a UAE-centric exporter into a distributed international consortium managing an established network of regional defense assets. The dual-site infrastructure is structured to integrate the group's decentralized European holdings under a unified framework, combining centralized government relations in the capital with localized aerospace and advanced weapons production.

EDGE Europe consolidates the group's pre-existing continental investments, which include controlling stakes in Estonia-based Milrem Robotics, Switzerland-based Anavia, and strategic joint ventures with Italy's Fincantieri and Spain's Indra Sistemas. The unified regional structure leverages a $20.4 billion backlog and an expanding product portfolio in sensors, electronic warfare, and autonomous systems to secure direct access to European defense supply chains.

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Although Paris will serve as the political and commercial center of EDGE Europe, the selection of Bordeaux is arguably the more consequential decision from an industrial perspective. (Picture source: EDGE)

On June 11, 2026, the Emirati EDGE Group launched EDGE Europe in Paris with a headquarters in Chaillot and an engineering and manufacturing center in Bordeaux. This new French-registered European entity marks a new stage in the group’s shift from a UAE-centered defense conglomerate into an international consortium with several subsidiaries across several foreign markets. The launch follows a three-year period in which EDGE expanded through acquisitions, equity investments, joint ventures, and industrial partnerships in Europe, rather than relying only on exports from the UAE.

Since its formation in 2019, the group has grown from about 25 entities to more than 35, while its 2025 order intake reached $7.96 billion and its backlog reached $20.4 billion. EDGE also unveiled 46 new systems at IDEX 2025, indicating that its expansion is not limited to corporate but also includes a broader product and technology portfolio. The creation of EDGE Europe should therefore be read as an institutional step in a larger industrial strategy: the group is building an external base in Europe to connect acquisitions, engineering capacity, production activity, supply-chain access, and export growth under a single regional structure. EDGE Europe does not start from zero because the group already had a European industrial footprint before June 2026.

In Estonia, EDGE controls Milrem Robotics, a company centered on unmanned ground vehicles and battlefield autonomy. In Switzerland, Anavia adds rotary-wing UAV expertise. In Poland, the Flaris investment gives EDGE exposure to aerospace development. In Italy, the CMD acquisition process targets propulsion and engine-related capabilities, while cooperation with Leonardo and Fincantieri links the group to sensors, mission systems, naval systems, and unmanned maritime activities. In Spain, the relationship with Indra Sistemas is tied to radar and sensor development, while Safran in France is connected to next-generation smart weapons.

The function of EDGE Europe is to place these dispersed activities under a more coherent European management framework, with Paris coordinating political, financial, and partnership activity, and Bordeaux providing an industrial site for engineering, integration, manufacturing, and rapid development. The Paris headquarters gives EDGE a location close to French political institutions, defense decision-making networks, diplomatic channels, financial actors, and the offices of major European defense companies. The Chaillot district also places EDGE near the ecosystem in which companies such as Safran, Leonardo, Indra Sistemas, Fincantieri, and other European defense stakeholders maintain regular engagement with ministries, procurement authorities, investors, and industrial partners.

Therefore, EDGE’s European strategy depends on industrial cooperation, access to supply chains, export positioning, and long-term partnership structures rather than on simple sales representation. Paris, consequently, provides a useful administrative and strategic hub, especially for government engagement and investment coordination across Europe. Yet the more important element may be Bordeaux, because the Bordeaux facility is tied directly to the production and engineering side of the strategy, not only to corporate representation. Bordeaux-Mérignac is one of France’s major aerospace and defense hubs, and its selection gives EDGE Europe a foothold in a region with a dense concentration of relevant industrial capabilities.

The area includes facilities linked to Dassault Aviation, Thales, Safran, ArianeGroup, Airbus Atlantic, and Sabena Technics, while the wider regional ecosystem includes roughly 300 aerospace, space, and defense companies. These companies cover propulsion suppliers, avionics firms, composites producers, aerospace subcontractors, electronics specialists, maintenance organizations, and engineering services. Compared with Paris, Bordeaux also offers lower recruitment pressure, closer proximity to industrial sites, access to specialized schools and research institutions, and a workforce already shaped by aerospace and defense production.

The region’s strengths in propulsion, avionics, composites, military electronics, missiles, space systems, and sustainment correspond closely to the areas where EDGE is trying to move up the defense value chain. The location also places EDGE near supply chains associated with high-end French programs such as Rafale fighter jets, Falcon business jets, Ariane space vehicles, and the M51 strategic missile, which is relevant for a company trying to expand deeper into aerospace, propulsion, missiles, and advanced systems integration. Milrem Robotics remains the clearest example of how EDGE is using acquisitions to buy into complex defense technologies that would take years to build internally. EDGE acquired a majority stake in the Estonian company in 2023, gaining access to the THeMIS unmanned ground vehicle, the Type-X robotic combat vehicle, autonomous logistics systems, and battlefield autonomy software.

The value of Milrem is not limited to vehicles. It includes intellectual property, software expertise, engineering personnel, and access to NATO and partner-country users who already operate or evaluate Milrem's systems. Autonomous land systems are a growth segment because armies face pressure to reduce personnel exposure, improve logistics under fire, extend reconnaissance reach, and support dispersed operations. Through Milrem, EDGE entered this emerging market with an existing European product base and user network rather than beginning with a clean-sheet development program in the UAE. The aerospace part of EDGE’s European expansion follows a similar logic.

Anavia in Switzerland gives EDGE rotary-wing UAV expertise, and the HT-750 UAV unveiled at IDEX 2025 is derived from Anavia technology. The HT-750 includes a turboshaft engine, 900-liter fuel capacity, modular payload architecture, and autonomous operation, placing it in a different category from smaller tactical UAVs built mainly for short-range reconnaissance. The Flaris investment in Poland broadens EDGE’s access to aerospace development activity, while the planned CMD acquisition in Italy would add propulsion and engine-related expertise. Propulsion is one of the most difficult aerospace competencies to acquire because it requires specialized design knowledge, manufacturing discipline, testing capacity, supply chain maturity, and long development cycles.

For EDGE, CMD would be relevant not only to UAVs but also to cruise missiles, loitering munitions, future aerospace systems, and other programs where engine performance, endurance, range, and reliability determine operational utility. Bordeaux’s aerospace ecosystem complements this effort by placing EDGE near a French industrial base where propulsion, avionics, composites, missile systems, and aerospace sustainment are already concentrated. The launch of EDGE Europe also comes as the group shifts its product center of gravity beyond its historical strengths in precision-guided weapons, armored vehicles, and tactical systems. Since 2025, EDGE has moved further into sensors, radar, electro-optics, infrared targeting, anti-jamming systems, and electronic warfare.

IDEX 2025 included the Nemus AESA radar family, Tawaq AI-enabled radar capabilities, Mirsad electro-optical and infrared targeting systems, and GPS Protect systems for electromagnetic-spectrum protection. These systems support ISR, targeting, force protection, and integrated operations across air, land, and naval forces. They also require a deeper technology base than the assembly of vehicles or the integration of conventional weapons, because radar and electronic warfare depend on radio-frequency engineering, signal processing, software, algorithms, antenna design, power management, and integration with command-and-control networks. EDGE’s movement into these sectors indicates an attempt to compete in higher-value parts of the defense market, where margins, export restrictions, development costs, and barriers to entry are generally higher. 

For that reason, the European partnership network is important because it gives EDGE access to experienced companies in precisely those higher-complexity sectors. The Leonardo joint venture announced in November 2025 is structured with EDGE holding 51% and Leonardo 49%, and its focus areas include electro-optics, sensors, air systems, naval systems, and integrated mission systems. Fincantieri cooperation supports naval and unmanned maritime activity, including areas relevant to autonomous maritime operations. Indra Sistemas provides a link to radar and sensor development, while Safran supports next-generation smart weapons.

These partnerships cover electro-optics, sensors, air systems, naval systems, land systems, and integrated mission systems, creating a European network that aligns with EDGE’s effort to move beyond weapons and vehicles into electronics, mission architectures, autonomy, propulsion, and systems integration. EDGE can sign partnerships, but these structures also produce engineering capacity, production work, exportable systems, and sustained transfer of know-how into EDGE entities. The financial base behind this strategy is significant. EDGE now includes more than 35 entities, reported $7.96 billion in 2025 order intake, and carries a $20.4 billion backlog.

The group also reported more than 80% domestic manufacturing content in the UAE, completion of 68 Industry 4.0 modernization projects, doubled production capacity across 13 entities, and more than 5,200 personnel trained through BRIDGE industrial programs. These numbers matter because overseas expansion requires capital, managerial capacity, industrial discipline, and production resilience. A company attempting to acquire Milrem Robotics, invest in Flaris, take over Anavia, pursue CMD, create a European entity, and maintain partnerships with Leonardo, Fincantieri, Indra Sistemas, and Safran needs more than a sales strategy. It needs a balance between domestic production depth in the UAE and external industrial access in Europe.

EDGE’s European move, therefore, reflects both financial capacity and a decision to use that capacity to buy or partner into technologies that are expensive, specialized, and difficult to build quickly from the ground up. Export dependence is the other major driver behind EDGE Europe. Hamad Al Marar, Managing Director and Chief Executive Officer of EDGE Group, has said that exports should eventually cover nearly all operating expenses, which implies a long-term effort to reduce reliance on UAE procurement and expand the customer base beyond the Gulf. France was selected as the first operational base for EDGE Europe, but the structure is intended to support a wider European strategy rather than stop at the French market.

A European footprint supports export campaigns, local industrial participation, eligibility for supply chain work, recruitment of European engineers, and cooperation with customers that want production, integration, or technology development inside Europe. The French ecosystem offers propulsion, composites, avionics, engineering talent, universities, and research institutions, while the Safran partnership gives EDGE a route into next-generation smart weapons. The French presence also fits the long-standing UAE-France defense and technology relationship, but the broader objective is commercial and industrial: future growth is increasingly tied to foreign customers, and a permanent European base gives EDGE a stronger position from which to pursue them. 

EDGE Europe should therefore be assessed as part of a broader transition from national consolidation to distributed industrial presence. The Paris-Bordeaux structure gives EDGE a European base for government engagement, investment coordination, engineering, manufacturing, rapid development, and partnership management. Its existing European assets already cover autonomy, UAVs, aerospace development, propulsion, sensors, naval systems, and smart weapons, and the new entity creates a framework to coordinate these areas rather than leaving them as separate acquisitions or bilateral arrangements.

The main indicator to monitor now will be the emergence of measurable industrial activity: recruitment in Bordeaux, new European-origin programs, transfer of engineering work into France, production orders, supply chain integration, and follow-on contracts with European or third-country customers. EDGE Europe is therefore not only a corporate launch. It is a marker of the group’s continuing institutionalization outside the UAE and a sign that Europe has become one of its principal external industrial bases.

Written by Jérôme Brahy

Jérôme Brahy is a defense analyst and documentalist at Army Recognition. He specializes in naval modernization, aviation, drones, armored vehicles, and artillery, with a focus on strategic developments in the United States, China, Ukraine, Russia, Türkiye, and Belgium. His analyses go beyond the facts, providing context, identifying key actors, and explaining why defense news matters on a global scale.

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Europe is accelerating its investment in defence and reshaping its industrial and strategic landscape. In this context, Spain is consolidating its position as one of the countries with the greatest growth potential, driven by sustained increases in defence spending and an increasingly competitive industrial base. This development reflects the country’s strong commitment to European security.

The growth of the Spanish market is the result of a structural transformation. With annual investment exceeding €30 billion, Spain is launching capability modernisationprogrammes and technological developments that create tangible opportunities for industry, integrating innovation, dual-use technologies and stronger connections with European value chains. All of these positions Spain as a key player in the new industrial balance of European defence, while also demonstrating that investing in defence is an investment in preserving a way of life and ensuring a safer environment.

Related topic: FEINDEF 2025 Day 1 Highlights: New Defense Technologies and Innovations Unveiled in Madrid Spain

FEINDEF 25 attracted 43,323 professional attendees, 628 exhibitors, 211 international exhibitors, 91 official delegations and representatives from 68 countries. (Picture source: FEINDEF)

For international companies, the Spanish market offers more than access: it offers long-term opportunities. Public-private collaboration, institutional support and openness to partnerships are driving an industrial cycle that creates concrete opportunities for growth and strategic positioning across Europe.

Against this backdrop, FEINDEF 27, the International Defence and Security Exhibition of Spain, is firmly established as the natural gateway to this ecosystem. It provides a platform where industry, institutions and international delegations come together in an environment designed to generate business opportunities and facilitate the establishment and expansion of international companies within one of the continent’s most promising markets.

With institutional backing from the Ministry of Defence and the support of TEDAE and AESMIDE, the business associations representing Spain’s defence industry, FEINDEF has strengthened its position as one of Europe’s leading defence events. Its multi-domain approach, encompassing land, naval, air, space, cyber and emerging technologies, reflects the evolution towards increasingly interconnected operational environments. However, its key differentiator lies in its ability to generate concrete opportunities: access to high-level decision-makers, the promotion of industrial cooperation and agendas focused on delivering tangible results.

The 2025 edition marked a turning point, with visitor numbers increasing by nearly 80% and participating companies growing by more than 40%. This progress reflects the growing interest in an expanding market and in a platform that connects the sector’s key stakeholders.

Its exhibition spaces bring together major Spanish companies, SMEs, start-ups, technology centres and universities, alongside an international presence that continues to grow through official delegations, international organisations and companies from Europe, Latin America, the Middle East, Asia and Africa. Organisations such as NATO, the European Union and the European Defence Agency are also represented. These are stakeholders with genuine decision-making capacity, making the exhibition a space for strategic dialogue and effective collaboration.

FEINDEF 27 represents another step forward in this evolution. With projections exceeding 63,000 professional visitors, around 800 exhibiting companies, 400 international delegations and more than 100 heads of international delegations, the exhibition will expand its footprint to nearly 90,000 square metres. The focus will be on the quality of interactions: enhanced B2B agendas, greater participation from decision-makers and an environment designed to create strategic positioning opportunities across Europe.

At a time when Europe is accelerating the strengthening of its industrial and technological capabilities, FEINDEF 27 serves as a meeting point that acts as a catalyst for capability development while reflecting a shared ambition: to build a safer environment, strengthen public support for the sector and move towards a model in which defence is perceived as a European public good.

Written by Jérôme Brahy

Jérôme Brahy is a defense analyst and documentalist at Army Recognition. He specializes in naval modernization, aviation, drones, armored vehicles, and artillery, with a focus on strategic developments in the United States, China, Ukraine, Russia, Türkiye, and Belgium. His analyses go beyond the facts, providing context, identifying key actors, and explaining why defense news matters on a global scale.

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The U.S. Army's 2nd Infantry Brigade Combat Team, 11th Airborne Division, has demonstrated a major shift in combat capability during Exercise Red Flag-Alaska 26-2 at Joint Base Elmendorf-Richardson, Alaska, as the 1st Squadron, 40th Cavalry Regiment prepares to become the 1st Battalion, 511th Parachute Infantry Regiment next month. The exercise highlighted the unit's transition from a cavalry reconnaissance formation to a parachute infantry battalion capable of conducting airborne assaults, forcible-entry operations, and rapid deployment missions across the Arctic and Indo-Pacific regions.

Conducted on June 10, 2026, Red Flag-Alaska 26-2 served as the squadron's final major training event under its cavalry designation. The exercise brought together U.S. Army, U.S. Air Force, and multinational forces in a complex joint operational environment to validate the battalion's evolving airborne mission set and strengthen interoperability across services and allied partners.

Related Topic: U.S. FIM-92K Stinger Missile Sale Gives Brazil New Shield Against Low-Altitude Air Threats

U.S. Army Soldiers from the 1st Squadron, 40th Cavalry Regiment conduct air assault operations during Exercise Red Flag-Alaska 26-2 at Donnelly Drop Zone near Fort Greely, Alaska, on June 10, 2026. The training supports the unit's transition into the 1st Battalion, 511th Parachute Infantry Regiment and strengthens airborne readiness for Arctic and Indo-Pacific missions. (Picture source: U.S. Department of War/Defense)

Unlike a traditional cavalry squadron focused primarily on reconnaissance, security, and screening missions, the future 1st Battalion, 511th Parachute Infantry Regiment is being organized and trained to execute airborne forcible-entry operations, seize critical terrain, secure airfields, and establish lodgments for follow-on forces. The transition reflects a broader U.S. Army effort to adapt combat formations for contested environments where rapid deployment and immediate combat power are essential.

Throughout the exercise, soldiers conducted deliberate mission planning, airborne timeline rehearsals, leader back-briefs, and operational wargaming, while closely integrating with Army aviation assets operating from Bryant Army Airfield. The training required participation from every echelon of command, demonstrating the extensive coordination necessary to execute large-scale airborne operations under realistic combat conditions.

The transformation is particularly significant for the U.S. Army's force posture in Alaska. As strategic competition intensifies in both the Arctic and Indo-Pacific theaters, military planners increasingly require units capable of deploying rapidly across vast distances and operating in austere environments with limited infrastructure. Airborne infantry formations provide a unique capability to insert combat forces directly into contested areas without relying on established ports, roads, or logistics hubs.

Red Flag-Alaska also provided an opportunity to refine the integration between U.S. Army ground maneuver forces and U.S. Air Force mobility and airpower assets. Modern airborne operations depend on close coordination between transport aircraft, command-and-control networks, aviation support, and ground combat units. The exercise tested these relationships in real time, improving readiness for future contingency operations where speed of deployment and synchronization across services could prove decisive.

The reflagging additionally restores a historic airborne designation within the 11th Airborne Division. The 511th Parachute Infantry Regiment earned distinction during World War II campaigns in the Pacific and became one of the most recognized airborne units in U.S. military history. Its return reflects both a renewed emphasis on airborne operations and the U.S. Army's effort to align unit identities with emerging operational requirements.

The transition also carries historical significance for the 11th Airborne Division, which played a central role in validating the airborne concept during the Knollwood Maneuver in December 1943. Conducted near Fort Bragg, North Carolina, the exercise demonstrated the effectiveness of large-scale airborne formations and helped secure the future of airborne forces within the U.S. Army. More than eight decades later, the division is once again helping shape the evolution of airborne operations as military planners adapt to new strategic challenges.

From an operational perspective, the conversion of the 1st Squadron, 40th Cavalry Regiment into the 1st Battalion, 511th Parachute Infantry Regiment represents a significant increase in expeditionary combat capability. Rather than focusing on reconnaissance and security missions, the new battalion will provide commanders with a force capable of rapidly seizing key terrain, opening access points for joint forces, and establishing a combat presence during the initial stages of a crisis.

The exercise demonstrated that the transformation is already well advanced. Although the official reflagging ceremony is scheduled for next month, the formation is increasingly training, planning, and operating as an airborne infantry battalion. Red Flag-Alaska 26-2 confirmed that the future 1st Battalion, 511th Parachute Infantry Regiment is emerging as a critical element of the U.S. Army's strategy to project combat power rapidly across the Arctic and Indo-Pacific, where speed, mobility, and joint integration will be essential to future military operations.

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Written by Alain Servaes – Chief Editor, Army Recognition Group
Alain Servaes is a former infantry non-commissioned officer and the founder of Army Recognition. With over 20 years of experience in defense journalism, he provides expert analysis of military equipment, NATO operations, and the global defense industry.

Brazil is set to strengthen its ability to defend airspace and remote border regions with the planned acquisition of 100 FIM-92K Stinger Block I missiles, after the U.S. Department of State approved a possible $330 million Foreign Military Sale on June 11, 2026. Announced by the U.S. Bureau of Political-Military Affairs, the package would give Brazil a proven mobile air defense capability able to counter low-altitude aircraft and emerging aerial threats while reinforcing sovereignty over vast and difficult-to-monitor territory.

The Stinger’s key advantage is its ability to provide rapid, deployable protection for critical sites, border positions, and forward forces without relying on large air defense infrastructure. For Brazil, the system adds a flexible defensive layer that supports counter-trafficking operations, strengthens control of remote air corridors, and reflects the growing importance of mobile short-range air defense in modern military planning.

Related Topic: U.S. and South Korean Marines Sharpen Stinger Air Defense Skills to Counter Low-Flying Threats

Brazil is set to acquire 100 U.S.-made FIM-92K Stinger Block I missiles under a proposed $330 million deal aimed at strengthening low-altitude air defense and airspace sovereignty (Picture Source: U.S. Department of War)

On June 11, 2026, the U.S. Department of State approved a possible Foreign Military Sale to Brazil for FIM-92K Stinger Block I missiles and related equipment, in a package estimated at $330 million. Announced by the Bureau of Political-Military Affairs, the decision comes as Brazil continues to strengthen its ability to protect national airspace, secure remote border regions, and counter illicit aviation linked to narcotics trafficking and transnational armed networks. The proposed sale is relevant because it places a combat-proven American short-range air defense system at the center of Brazil’s effort to build a more flexible and layered territorial defense posture.

The Government of Brazil has requested 100 FIM-92K Stinger Block I missiles, together with gripstocks, engineering assistance, integration support services, U.S. Government and contractor engineering, technical and logistics support, and other elements of logistics and program support. This composition shows that the proposed transaction is not limited to a simple missile purchase. It is structured as a full operational package designed to help Brazil absorb, deploy, sustain, and integrate the system within its armed forces. The U.S. notification states that the sale would improve Brazil’s ability to meet current and future threats while supporting defense modernization efforts aimed at allowing the country to do more for its own security, particularly against illicit trafficking operations in South American airspace.

The FIM-92K Stinger Block I is a short-range air defense missile within the MANPADS and very-short-range air defense category, designed to engage low-altitude aerial threats, including helicopters, fixed-wing aircraft, and selected unmanned aerial systems depending on the engagement geometry, target signature, and operational environment. Its main value is tactical mobility, rapid emplacement, and point-defense coverage. Unlike heavy air defense systems, Stinger fire units can be deployed by dismounted troops, repositioned in complex terrain, and used to protect air bases, radar sites, command posts, border positions, forward operating locations, and other high-value assets. For Brazil, this is especially important because the country’s geography creates an airspace-control challenge unlike that of many other states. Its armed forces must consider not only major urban and military centers, but also the Amazon basin, long land borders, sparsely populated regions, illegal airstrips, river corridors, and remote areas where illicit aircraft can exploit distance, terrain masking, and limited ground infrastructure.

The operational history of the Stinger gives the system a credibility that few man-portable air defense systems can match. Originally developed to replace the earlier Redeye missile, the Stinger entered U.S. service during the Cold War and has since been used by American forces and allied partners in multiple theaters. Its continued relevance is linked to a long modernization process that has kept the system adapted to evolving low-altitude threats. The Block I standard improved the missile’s performance against more demanding targets, while the FIM-92K configuration reflects the broader U.S. effort to sustain Stinger as a modern short-range air defense solution. In current military planning, the system is no longer viewed only as a shoulder-fired weapon of last resort, but as part of a wider defensive architecture supporting dispersed ground forces, sensor-to-shooter coordination, airspace denial, and the lower tier of integrated air and missile defense.

The advantages of the FIM-92K in the Brazilian context are directly connected to the country’s need for rapid, flexible, and geographically dispersed air defense. Brazil already operates a broader aerospace surveillance and air-policing structure, but air sovereignty cannot depend only on radars, aircraft, and centralized command-and-control systems. Ground units also need the ability to deny access to low-flying aircraft and hostile or unauthorized aerial activity near sensitive zones. The Stinger would provide Brazil with a mobile last-line defensive capability that can complement fighter interception, ground-based surveillance, early warning networks, and existing command-and-control nodes. This is particularly relevant in areas where illegal aircraft may attempt to fly at low altitude, exploit coverage gaps, use terrain masking, or operate from improvised landing zones.

The proposed sale reinforces U.S.-Brazil defense cooperation without creating a destabilizing military shift in South America. The U.S. notification explicitly states that the sale would not alter the basic military balance in the region, an important point because the Stinger is defensive by nature. It does not provide Brazil with a long-range strike capability; instead, it strengthens the country’s ability to protect its own territory and airspace. From a U.S. perspective, the approval supports a responsible model of defense partnership in the Western Hemisphere by helping a major regional democracy strengthen sovereignty, counter illicit networks, and assume greater responsibility for its own security. For Brazil, it provides access to an American system backed by decades of operational use, established sustainment channels, and an industrial base able to support allied air defense requirements.

The geostrategic implications are also significant. Brazil faces no immediate conventional air threat comparable to those seen in Europe or the Middle East, but its security environment includes persistent non-state and transnational challenges. Illegal aviation linked to drug trafficking, weapons smuggling, illegal mining, and criminal logistics can undermine state control in remote regions. In this environment, the FIM-92K Stinger Block I would give Brazil a focused defensive capability that can be deployed where larger air defense systems are impractical or unnecessary. It would also contribute to deterrence by complicating the calculations of hostile or illicit actors operating near protected zones. The acquisition would fit into a broader concept of sovereignty enforcement, where air defense is not only about warfighting but also about national control over territory, borders, strategic infrastructure, and low-altitude air corridors.

The estimated $330 million value of the package should not be interpreted as the unit price of 100 missiles. Under the Foreign Military Sales framework, the figure includes a complete capability set: missile rounds, gripstocks, engineering assistance, integration support, logistics, technical services, sustainment planning, and program support. This distinction is essential because Brazil is not merely acquiring missile stocks; it is seeking an operationally sustainable short-range air defense capability with a support architecture, training pathway, and logistics tail. The principal contractors identified by the U.S. Government are RTX Corporation, located in Arlington, Virginia, and Lockheed Martin, located in Syracuse, New York. The U.S. Government has not identified any offset agreement at this stage, and any future offset would be defined through negotiations between Brazil and the contractors. The notification also states that implementation would not require the assignment of additional U.S. Government or contractor representatives to Brazil, which reinforces the political acceptability of the package by allowing Brazil to acquire the capability without a permanent new American support footprint.

The Brazilian request also fits into a wider return of short-range air defense to the center of military planning. In April 2025, the United States approved a possible sale to Morocco of up to 600 FIM-92K Stinger Block I missiles and related equipment for an estimated $825 million. Compared with Morocco’s larger missile quantity, Brazil’s request for 100 missiles appears more focused and likely aimed at reinforcing selected operational units rather than creating a large national inventory from the outset. Recent U.S. and allied procurement activity also shows renewed demand for Stinger missiles after years in which many armed forces prioritized longer-range systems. The war in Ukraine, the spread of unmanned aerial systems, and the vulnerability of dispersed forces to low-altitude threats have all contributed to restoring the operational importance of MANPADS, VSHORAD assets, and mobile point-defense systems.

For Washington, the proposed sale demonstrates the value of American defense cooperation with Brazil at a time when regional security challenges increasingly require practical, reliable, and defensive military tools. For Brasília, the FIM-92K Stinger Block I offers a compact but strategically meaningful capability that can reinforce airspace control, support counter-trafficking missions, and strengthen the protection of military and critical infrastructure. The sale is more than a missile transaction. It would give Brazil a mobile air defense layer adapted to its geography, strengthen U.S.-Brazil defense ties, and show how American systems can support sovereign security without destabilizing the regional balance. In an environment shaped by illicit air routes, unmanned threats, and renewed global demand for short-range air defense, the Stinger package gives Brazil a focused capability with strategic value beyond its numerical size.

Written by Teoman S. Nicanci – Defense Analyst, Army Recognition Group

Teoman S. Nicanci holds degrees in Political Science, Comparative and International Politics, and International Relations and Diplomacy from leading Belgian universities, with research focused on Russian strategic behavior, defense technology, and modern warfare. He is a defense analyst at Army Recognition, specializing in the global defense industry, military armament, and emerging defense technologies.

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Kongsberg Gruppen ASA has taken control of Zone 5 Technologies, adding a U.S. developer of low-cost autonomous munitions to its missile and air defense portfolio after completing the acquisition on June 10, 2026. The move strengthens Kongsberg’s position in U.S. efforts to field precision weapons at scale, where range and accuracy must be matched by affordability, fast production, and rapid delivery.

Zone 5 brings programs and designs linked to Rusty Dagger, White Spike, Paladin, AGM-188 FAMM, and the ERAM export effort, giving Kongsberg a direct stake in weapons built for mass use rather than limited high-end inventories. By keeping the California company as an independent subsidiary with its existing leadership, Kongsberg gains U.S. industrial depth while preserving the speed and flexibility needed for future missile and air warfare.

Related topic: U.S. Air Force Awards $240.9M Contract for Joint Strike Missile to Boost F-35 Fighter Strike Power.

Kongsberg's acquisition of Zone 5 Technologies adds U.S.-developed affordable missiles, counter-UAS interceptors, and tactical unmanned aircraft to its portfolio, strengthening its position in American strike and air defense programs (Picture source: Kongsberg).

The most important asset in the acquisition is not a single missile, but a design and production model aligned with current U.S. munitions policy. Zone 5 has been selected or down-selected in competitive U.S. work tied to ERAM, FAMM, and Defense Innovation Unit counter-UAS efforts. That matters because the U.S. Air Force is trying to create a category of lower-cost weapons that can be procured in larger quantities than traditional cruise missiles, used from existing aircraft, and replenished faster than legacy precision-guided munitions. Brig. Gen. Robert P. Lyons III, the Air Force weapons portfolio acquisition executive, told the Senate Armed Services Committee in March 2026 that ERAM moved from initial contract to production in 14 months, while related affordable munition efforts produced flying prototypes within months rather than years.

Rusty Dagger is the clearest example of this approach. Public data on AGM-188A Rusty Dagger remains limited. Still, available information describes a compact air-launched cruise missile in roughly the 200 kg class, with a length of about 2.64 m, high-subsonic speed, a PBS Aerospace TJ80 turbojet, GPS/inertial navigation, and a warhead estimated at 45 kg. The ERAM requirement against which Rusty Dagger has been associated called for a 225 kg-class weapon, a multipurpose warhead, a minimum range of 460 km, speed of at least Mach 0.6, accuracy of 10 m CEP or better in GPS-degraded conditions, and delivery of at least 1,000 all-up rounds within 24 months of contract award. These figures define the operational logic of the missile: it is sized for carriage by tactical aircraft, designed for standoff attack against fixed or relocatable targets, and intended to be manufactured at rates relevant to sustained conflict rather than limited strike packages.

From a tactical perspective, Rusty Dagger would sit between short-range glide weapons and higher-cost long-range cruise missiles. A missile with a 460 km-plus range allows aircraft such as F-16-class fighters to engage command posts, ammunition storage sites, air defense support nodes, logistics hubs, and parked aircraft from outside many short- and medium-range surface-to-air missile envelopes, depending on release altitude, routing, and enemy sensor coverage. The reported use of GPS/INS, possible autonomous visual navigation, and a small turbojet give the missile greater reach than unpowered bombs while avoiding the cost structure of more complex stealthy cruise missiles. For Ukraine-style operations, the relevant effect is not only target destruction; it is forcing the defender to allocate radar time, interceptors, electronic warfare, and dispersal measures against a weapon that is intended to be available in thousands rather than dozens. The U.S. State Department approved a possible $825 million Foreign Military Sale to Ukraine in August 2025, covering up to 3,350 ERAM missiles and the same number of embedded GPS/INS units with SAASM, Y-Code, or M-Code options, which shows the scale at which this category is being considered.

White Spike addresses the other side of the same problem: the imbalance between cheap unmanned aircraft and expensive air defense interceptors. Zone 5 describes White Spike as a missile, launcher, and open command-and-control system available in surface-launched and air-launched configurations, able to conduct counter-UAS interception and precision attack against air and surface targets. Kongsberg’s earlier acquisition notice identified White Spike as a low-cost Group 3-plus air interceptor, which places it in a threat environment that includes larger reconnaissance drones, one-way attack unmanned aircraft, and lower-end cruise-like targets. For NASAMS users, the significance is not that White Spike replaces AMRAAM, AMRAAM-ER, or AIM-9X. Its value would be in a lower tier of the engagement chain, where batteries need more interceptors per launcher, lower cost per shot, and an option for targets that do not justify a medium-range air-to-air missile adapted for ground launch.

Paladin adds a smaller tactical system to the same acquisition. Zone 5 describes Paladin as a TAK-integrated, multi-mission unmanned aircraft with missions including counter-UAS drone interception, explosive munition drop, and rifle-payload engagement, and states that it is on the Defense Innovation Unit Blue UAS list. This is not a strategic missile capability, but it is relevant to base defense, convoy protection, border security, and forward unit counter-drone operations, where engagement ranges are short, and the required effect may be disabling a small unmanned aircraft rather than firing a larger interceptor. The payload options listed by Zone 5 include counter-UAS, munition drop, and 7.62/.308 rifle, loudspeaker, and spotlight, indicating a system designed for close tactical tasks under operator command rather than deep strike.

For Kongsberg, Zone 5 changes its U.S. position in concrete terms. The company already sells Naval Strike Missile to the U.S. Navy and Marine Corps, Joint Strike Missile for the F-35A, NASAMS for U.S. and allied air defense, and PROTECTOR remote weapon stations from its Johnstown, Pennsylvania, facility. It is also building a missile production facility in James City County, Virginia, with more than $100 million in planned investment and more than 180 jobs, intended to assemble, upgrade, and repair NSM and JSM. Zone 5 gives Kongsberg a separate American missile developer already connected to the U.S. Air Force, DIU, and Air Force Research Laboratory efforts, which is materially different from exporting Norwegian-designed missiles into U.S. service. It gives Kongsberg engineering labor, test experience, customer access, and production concepts inside the U.S. acquisition system, while allowing Zone 5 to retain operational continuity under its existing management.

The industrial logic is also clear: Kongsberg’s existing missile business is concentrated in higher-end systems such as NSM and JSM, where survivability, seeker performance, and naval or F-35 integration are central. Zone 5 adds weapons designed around lower-cost propulsion, modular software, rapid engineering cycles, and high-volume procurement. That combination may allow Kongsberg to offer allies a broader missile mix: expensive anti-ship and precision strike weapons for defended targets, lower-cost air-launched cruise missiles for volume strike, and cheaper interceptors for unmanned aircraft. For the U.S. market, the acquisition improves Kongsberg’s ability to respond to congressional and Pentagon pressure for more munitions capacity without relying only on expansion of existing NSM, JSM, and NASAMS lines.

The main constraint is execution: affordable missiles only matter if suppliers can secure engines, guidance units, warheads, energetic materials, test ranges, and final assembly capacity at the required rate. Zone 5 brings Kongsberg a credible entry point, but the company will still have to prove that Rusty Dagger, White Spike, and related weapons can move from rapid development to repeatable production with consistent quality and predictable cost. If that transition holds, the acquisition gives Kongsberg a stronger U.S. industrial base, a more complete strike and air defense portfolio, and a position in the part of the missile market most likely to grow as Western forces shift from small inventories of premium weapons toward larger stocks designed for sustained combat.

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Written by Evan Lerouvillois, Defense Analyst.

Evan studied International Relations, and quickly specialized in defense and security. He is particularly interested in the influence of the defense sector on global geopolitics, and analyzes how technological innovations in defense, arms export contracts, and military strategies influence the international geopolitical scene.

Israeli defense company Rafael Advanced Defense Systems unveiled the serial variant of its Hunter Eagle counter-UAS interceptor at the ILA Berlin 2026 exhibition. Developed to neutralize Group 1 through Group 3 unmanned aerial systems, the hard-kill platform uses autonomous vertical take-off and landing flight capabilities to perform direct-impact hit-to-kill interceptions. The system provides a localized point defense option for scenarios where electronic warfare signals are jammed or where traditional missile defense architectures are cost-prohibitive.

The 5-kilogram Hunter Eagle system features a lightweight magnesium-aluminum airframe integrated with a two-axis stabilized bolometric electro-optical seeker and four wing-mounted electric propulsion pods. Operating without an explosive warhead to reduce collateral blast damage, a single ground control station utilizes mesh-networking architecture to coordinate up to ten interceptors simultaneously against coordinated drone swarms.

Related topic: Israeli RAFAEL debuts its Iron Beam Laser to defeat drones and rockets up to 10 km.

Concentrating the Hunter Eagle's performance in the final seconds of engagement increases closing speed and reduces the time available for evasive maneuvers, a significant factor when defending installations or convoys against low-altitude drones. (Picture source: Army Recognition)

On June 10, 2026, the Israeli company Rafael Advanced Defense Systems unveiled the serial variant of its Hunter Eagle at ILA Berlin 2026, a counter-UAS interceptor designed to engage Group 1 to Group 3 drones, including coordinated swarm attacks, at short range. The unveiling occurred during ILA Berlin 2026, held from June 10 to June 14, 2026, where unmanned aerial systems formed one of the central themes of the exhibition. The Hunter Eagle expands Rafael’s layered air defense and counter-drone portfolio as a hard-kill option intended for cases where electronic warfare may be insufficient and where larger missile interceptors may be disproportionate in cost, footprint, or collateral effects.

Its concept is based on autonomous flight, onboard electro-optical target acquisition, and direct-impact interception for missions such as point defense of military installations, protection of mobile forces, convoy escort, and defense of critical infrastructure, all of which involve short reaction times, limited engagement space, and a need to reduce risk to personnel or nearby infrastructure. The full system combines interceptor vehicles, sealed reloadable launchers, and a ground control station able to manage several simultaneous engagements rather than a single one-to-one operator and interceptor pairing. 

The Hunter Eagle, produced by Rafael's Air & Missile Defense Systems Division, had already been publicly unveiled as a full-scale model at DSEI 2025 before ILA Berlin 2026. The interceptor uses a fixed-wing airframe with vertical take-off capability, which gives it the ability to launch without a runway while retaining the aerodynamic efficiency of a winged vehicle during the pursuit phase. This matters because many counter-drone interceptors built around multirotor layouts can take off vertically but lose efficiency and speed during sustained chase profiles. The Hunter Eagle weighs 5 kg, has an airframe length of 730 mm, and measures 630 mm in overall diameter, placing it in a compact class that can be transported and operated by small tactical units.

The airframe uses magnesium and aluminum, reducing mass while supporting the structural requirements of a hit-to-kill collision. Its non-explosive construction reduces blast and fragmentation effects, while electric propulsion eliminates combustion signatures and lowers maintenance demands compared with fuel-powered systems. The propulsion layout consists of four wing-mounted pods, each carrying an electric motor that drives a three-blade propeller. The Hunter Eagle has a loitering speed of 70 m/s, or 252 km/h, and a terminal interception speed of 110 m/s, or 396 km/h. The difference between these two figures shows that the interceptor is not designed simply to patrol at maximum speed, but to conserve energy before accelerating in the final engagement phase.

That profile is relevant against maneuvering drones because the final seconds of an intercept determine whether the interceptor can close the remaining distance before the target reaches a defended asset. Its 20-minute flight duration also confirms a short-range role rather than extended-area air defense coverage. The vertical climb capability gives the interceptor a means to engage targets arriving from different altitudes, while the terminal speed places it above the performance range of many small commercial quadcopters and closer to the engagement requirements created by faster fixed-wing UAS. The engagement process is built around onboard sensing, mission computing, and autonomous pursuit after launch.

Operator input is limited once the interceptor leaves the launcher, which is significant in low-altitude drone attacks where time between detection and impact can be short. Autonomous navigation reduces the need for continuous manual steering, while onboard mission computing handles route management, target pursuit, and engagement execution. This allows the interceptor to continue toward the target even when the operator is managing other tracks or when the communications environment is contested. Automated engagement logic shortens the sensor-to-shooter cycle by reducing the number of manual actions required between target assignment and terminal attack.

The system can also assign multiple Hunter Eagle interceptors at the same time against different tracks or individual elements of a swarm, which is essential when defending against drone swarms rather than isolated drones. The Hunter Eagle uses a central cylindrical fuselage with a two-axis stabilized optical seeker in the nose. The seeker activates during the close-in phase before the autonomous terminal attack, when target discrimination and precise tracking become more important than broader navigation. The seeker includes a bolometric imaging sensor for detection and tracking, allowing the interceptor to follow targets through an onboard electro-optical channel rather than relying only on external cueing.

Electro-optical tracking also supports positive target identification before impact, which is important near friendly forces, infrastructure, and other relevant activity. During flight, the interceptor can transmit imagery, giving operators a real-time view from the engagement path, but it can also transmit target coordinates across the network, so the same unit contributes both reconnaissance data and kinetic interception during the same mission sequence. The communications architecture uses RF uplink and downlink channels between the Hunter Eagle and the Ground Control System (GCS). These links include encryption and mesh-networking functionality, which are relevant when several interceptors are operating in the same defended area and must maintain connectivity during simultaneous engagements.

Mesh networking increases resilience by allowing a more distributed communications structure instead of relying only on a single direct link for every air vehicle. The Hunter Eagle is compatible with command-and-control (C2) architectures and can be integrated into wider air defense networks. Rafael’s broader C-UAS architecture already includes sensors, electronic warfare, directed-energy options, and kinetic interceptors, with the Hunter Eagle occupying the hard-kill interceptor layer. That role places it after detection and tracking, alongside or after soft-kill options, and before the use of larger missile-based air defense assets when the target set is small UAS at short range. 

The Ground Control System, or GCS, includes a mission manager computer, a display unit, and a ground transmitter unit. A single GCS can manage up to ten Hunter Eagle interceptors simultaneously, while the operator console supports up to two operators. This ratio is operationally important because swarm defense depends on managing several interceptors and several targets at the same time, not simply launching one interceptor at one drone. The mission manager computer coordinates interceptor assignment and engagement management, allowing one operator team to supervise parallel interception missions.

Centralized control reduces manpower requirements compared with models that require one dedicated operator per interceptor. It also enables layered engagement sequences against complex raid scenarios, including threats approaching from several directions or altitudes before they reach the immediate perimeter of a defended site. As previously said, the Hunter Eagle neutralizes targets through direct physical impact rather than an explosive warhead, and this hit-to-kill method is central to its intended use in urban areas, near critical infrastructure, and around friendly forces, where blast and fragmentation from explosive interceptors could create additional hazards after launch.

The launcher is sealed and reloadable, allowing repeated use without replacing the full launch unit after each firing. RF shielding inside the launcher protects communications and onboard electronics before launch, while the launcher also includes an umbilical connector and a battery management system. The magnesium and aluminum airframe supports the lightweight kinetic design needed for a 5 kg class interceptor, while the ability to return to the take-off point after an aborted or failed engagement reduces the operational burden associated with unsuccessful intercept attempts. Taken as a complete system, the Hunter Eagle addresses the gap between electronic warfare soft kill, which may not stop every autonomous or hardened drone, and larger missile-based air defense interceptors, which may be excessive for many Group 1 to Group 3 UAS threats.

Written by Jérôme Brahy

Jérôme Brahy is a defense analyst and documentalist at Army Recognition. He specializes in naval modernization, aviation, drones, armored vehicles, and artillery, with a focus on strategic developments in the United States, China, Ukraine, Russia, Türkiye, and Belgium. His analyses go beyond the facts, providing context, identifying key actors, and explaining why defense news matters on a global scale.

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General Dynamics Ordnance and Tactical Systems has secured a U.S. Army contract for a 155mm Extended Range Artillery Projectile, the company confirmed on June 5, 2026, giving American tube artillery a path to strike targets at up to 70 kilometers with precision effects. Based on the Vulcano guided round developed with Diehl Defence and Leonardo, the award supports the Army’s push to regain artillery overmatch through smarter ammunition that can reduce exposure to counter-battery fire.

The projectile combines long-range aerodynamic performance with guided flight and optional terminal seekers, including Semi-Active Laser guidance for stationary or moving targets and a Far-Infrared seeker for maritime engagement. This gives U.S. artillery units a potential bridge between current cannon systems and future long-range fires, adding a lower-cost precision layer for counter-fire, deep strike, and coastal defense missions.

Related Topic: Tiberius Sceptre Ramjet Round Could Transform NATO 155mm Artillery Into Missile-Like Deep Strike Capability

The U.S. Army has selected General Dynamics Ordnance and Tactical Systems to advance a Vulcano-derived 155mm Extended Range Artillery Projectile capable of delivering precision strikes at ranges up to 70 kilometers, strengthening long-range cannon fire capabilities against high-value land and maritime targets (Picture Source: GDOTS / U.S. Department of War)

On June 5, 2026, General Dynamics Ordnance and Tactical Systems confirmed that it had received a contract for the U.S. Army’s next-generation 155mm Extended Range Artillery Projectile, marking a new step in Washington’s effort to regain artillery overmatch through smarter ammunition rather than only longer barrels. Derived from the Vulcano 155 Guided Long Range system developed with Diehl Defence and Leonardo, the projectile brings a European combat-proven precision artillery concept into a U.S. Army modernization track shaped by the need for deeper, faster, and more survivable fires. The development is particularly significant because it comes as modern battlefields have shown that artillery effectiveness is no longer measured only by volume of fire, but by the ability to strike high-value targets at extended range with fewer rounds, lower exposure to counter-battery fire, and greater resilience in GPS-contested environments.

The new projectile is presented by GDOTS as a target-seeking precision artillery munition derived from the Vulcano 155 Guided Long Range family, a sub-caliber 155mm ammunition designed to increase range and accuracy while remaining compatible with existing artillery handling and firing systems. This design choice is central to its operational value: rather than relying only on a heavier propelling charge or a new cannon, the projectile uses reduced aerodynamic drag, guided flight, and terminal seeker options to push conventional artillery into a range class normally associated with more expensive rocket and missile systems. The Vulcano family includes unguided Ballistic Extended Range and Guided Long Range variants, with the guided version using advanced aerodynamics, inertial and GPS guidance, and optional terminal seekers. In the configuration highlighted by GDOTS, the munition can reach up to 70 kilometers and can be equipped with a Semi-Active Laser terminal seeker for precision engagement of stationary and moving targets. A Far-Infrared seeker configuration is also available for sea-target engagement, giving the projectile a potential role beyond traditional land fire support and opening the door to coastal defense missions in regions such as the Baltic Sea, the Black Sea, and the Indo-Pacific island chains.

The contract also appears to fit into a wider U.S. Army Extended Range Artillery Projectile effort rather than a single isolated procurement. The Defense Ordnance Technology Consortium awards listing identifies an April 2026 “Vulcano-ASC 155mm Extended Range Artillery Projectile” initiative awarded to General Dynamics-OTS with a project value of $37.86 million. The same listing also includes separate ERAP-related awards to General Atomics and BAE Systems Land & Armaments, indicating that the Army is assessing several industrial and technical approaches to deliver longer-range 155mm ammunition. This broader context matters because it suggests that the U.S. Army is not only seeking one new shell, but also trying to define the next layer of precision cannon fires after years of investment in both extended-range guns and guided ammunition. It also points to a possible shift in U.S. artillery modernization: after the technical difficulties associated with developing new extended-range cannon systems, the Army appears to be placing greater emphasis on ammunition-led range growth, where smarter projectiles can improve battlefield reach faster than the full introduction of new artillery platforms.

One of the main advantages of the Vulcano-derived projectile is its ability to extend the operational envelope of tube artillery while preserving the relatively low logistical footprint of 155mm ammunition. Traditional high-explosive artillery shells remain useful for area fire and suppression, but their effectiveness decreases as range increases and target location errors grow. Rocket-assisted or base-bleed projectiles can fly farther, but they do not automatically solve the accuracy problem. The Vulcano approach is different: its sub-caliber body reduces drag, its guided flight profile improves precision, and its terminal seeker options allow target discrimination at the end of flight. This makes it suitable for high-value targets such as air defense systems, command posts, artillery batteries, logistics hubs, armored vehicles, radar sites, and, in the Far-Infrared configuration, selected maritime targets in coastal environments.

Compared with the M982 Excalibur, which remains the benchmark U.S. 155mm precision-guided artillery projectile, the GDOTS solution should be understood as a complementary capability rather than a simple replacement. Excalibur is already integrated into U.S. and allied artillery units and is valued for first-round precision against fixed coordinates, especially when target location is already established and the mission requires controlled effects with limited collateral damage. The Vulcano-derived projectile follows a different operational logic by combining extended aerodynamic performance, seeker-based terminal engagement, and a wider target set. Its value is not only in reaching farther, but in giving artillery units the ability to engage targets that may move, relocate, or operate in GPS-contested environments, including selected maritime threats when using the Far-Infrared seeker configuration.

This distinction is important for the U.S. Army because artillery modernization is no longer defined only by the gun, but by the relationship between barrel length, ammunition design, fire-control integration, and the targeting network behind each shot. Today’s U.S. tube artillery force is still centered on systems such as the M777 and M109A7 Paladin, while future long-range cannon concepts are expected to rely on longer-barrel architectures and more efficient projectiles. A Vulcano-derived ERAP could therefore act as a bridge between the current fleet and future artillery systems, allowing the Army to increase tactical reach before a new generation of platforms is fully fielded. In that sense, the GDOTS projectile is not simply another guided shell, but part of a broader shift toward ammunition-led overmatch, where smarter 155mm rounds help restore range, survivability, and precision in high-intensity warfare.

The contract reflects a shift in how the U.S. Army may recover range advantage after the technical challenges encountered by the Extended Range Cannon Artillery effort. Rather than relying only on a new 58-caliber cannon, the Army is continuing to pursue munitions that can extend reach from existing and future artillery systems. This matters tactically because a 70-kilometer-class guided projectile allows batteries to operate farther from enemy counter-battery threats while engaging targets that previously required rockets, missiles, or air-delivered weapons. In Europe, such a capability would strengthen NATO’s ability to conduct precision counter-fire and disrupt rear-area logistics in a dense artillery environment. In the Indo-Pacific, the Far-Infrared seeker option could support distributed land forces operating from islands or coastal positions, where artillery could contribute to sea-denial missions against landing craft, patrol vessels, or logistics ships. It would not replace anti-ship missiles, but it could add a lower-cost, magazine-deep layer to joint maritime defense.

The GDOTS award for a Vulcano-derived 155mm Extended Range Artillery Projectile marks a significant step in the U.S. Army’s search for longer-range, more precise, and more adaptable cannon fires. Its value is not limited to the 70-kilometer range figure. The program links European munition maturity with U.S. production capacity, adds seeker-based engagement options against moving and maritime targets, and supports a more flexible artillery force able to operate under counter-battery and electronic warfare pressure. If the Army can integrate the projectile across current and future 155mm systems, connect it to resilient targeting networks, and scale production in meaningful quantities, ERAP could become one of the most important bridges between conventional artillery and the missile-centric precision fires architecture now shaping modern land warfare.

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Written by Teoman S. Nicanci – Defense Analyst, Army Recognition Group

Teoman S. Nicanci holds degrees in Political Science, Comparative and International Politics, and International Relations and Diplomacy from leading Belgian universities, with research focused on Russian strategic behavior, defense technology, and modern warfare. He is a defense analyst at Army Recognition, specializing in the global defense industry, military armament, and emerging defense technologies.

Taiwan has conducted its first operational-area live-fire test of the U.S.-made HIMARS rocket system outside the Jiupeng range, demonstrating a capability designed to strike targets across the battlespace while remaining difficult to detect and destroy. Reported by Taiwan’s Military News Agency on June 10, 2026, the exercise showed how rapid movement, precision engagement, and immediate withdrawal could strengthen the island’s ability to disrupt a potential Chinese amphibious assault and complicate enemy planning during the opening stages of a conflict.

The launcher completed its move-to-fire sequence in roughly three minutes before quickly relocating, validating the shoot-and-scoot tactics essential for surviving against drones, counter-battery systems, and long-range precision strikes. Combined with guided rockets, long-range missiles, and networked targeting assets, HIMARS could support a more distributed defense posture by threatening landing forces, logistics hubs, command nodes, and staging areas across multiple sectors of the Taiwan Strait battlespace.

Related Topic: Taiwan Tests U.S.-Made TOW and Javelin Missiles Against Maritime Targets to Refine Anti-Landing Defense Strategy

Taiwan’s first operational HIMARS live-fire exercise outside its primary test range demonstrated how rapidly deployable, precision-guided rocket artillery could enhance the island’s ability to disrupt and complicate a potential Chinese amphibious assault across the Taiwan Strait (Picture Source: Taiwan’s Military News Agency)

The Taiwanese Military News Agency reported on June 10, 2026, that Taiwan’s Fifth Combat Zone conducted the first live-fire verification of the U.S.-made HIMARS multiple rocket launcher system outside the Jiupeng base, this time in the western defense zone. The firing marked a significant step in Taiwan’s effort to adapt long-range precision fires to a potential cross-strait conflict. By demonstrating rapid movement, precision engagement, and immediate withdrawal, the exercise showed how HIMARS could strengthen Taiwan’s ability to reinforce threatened areas and complicate an adversary’s operational planning. The event is relevant because it indicates that Taiwan is moving from acquisition to operational integration of one of the most important mobile strike systems in its asymmetric defense strategy.

The Fifth Combat Zone conducted the firing during the second day of the “115 Heavy Artillery and New Weapon Replacement Verification Firing,” with the main focus placed on the first live-fire use of HIMARS outside the Jiupeng base since the system was received by Taiwan. Unlike Jiupeng, which offers a controlled test environment, the western defense zone has direct operational relevance because it faces the Taiwan Strait and includes areas that would be central to any large-scale amphibious or airborne pressure campaign against the island. This makes the location of the exercise as important as the firing itself. Taiwan was not only testing a weapon system, but also validating whether HIMARS can be employed in a combat environment closer to the terrain, road networks, civilian infrastructure, and coastal approaches that would shape a real conflict.

During the exercise, the HIMARS launcher was initially positioned in a concealed location to preserve combat capability. After receiving the firing order, it immediately moved to its firing position, completed the “mobilization-firing preparation-firing” sequence within three minutes, and withdrew from the position immediately after launch. This sequence validated the “shoot-and-scoot” tactic, which is central to the survivability of mobile rocket artillery on a modern battlefield. In an environment saturated by drones, counter-battery radars, electronic surveillance, satellites, and long-range strike assets, the time spent in a firing position can determine whether a launcher survives or becomes a target. Taiwan’s ability to execute this short firing cycle suggests that its HIMARS crews are training to reduce exposure time and break the enemy’s kill chain before counter-fire can be delivered.

The exercise also demonstrated the precision strike and cross-regional reinforcement advantages of the system. In a Taiwan Strait scenario, the value of HIMARS would not be limited to the area where a launcher is physically deployed. A unit positioned in one combat zone could provide fire support to another, allowing Taiwan to concentrate effects without concentrating large formations. This is particularly important for an island defense posture in which multiple coastal sectors, ports, airfields, command centers, and logistics nodes could come under simultaneous pressure. HIMARS could be used to strike high-value targets such as amphibious staging areas, command-and-control nodes, air-defense systems, missile-support infrastructure, logistics convoys, or units preparing to move toward Taiwan’s coastline.

The strategic implications are significant because HIMARS adds uncertainty to the planning of the People’s Liberation Army. Any adversary preparing a landing operation would have to account for mobile launchers capable of dispersing, firing, relocating, and potentially reappearing from another sector. Depending on the munitions available, HIMARS can support tactical strikes with guided rockets or longer-range engagements with ATACMS-class missiles. This would force an attacker to allocate more intelligence, surveillance, reconnaissance, air-defense, and strike resources to locating and neutralizing mobile launchers before they can influence the battle. In practical terms, Taiwan’s HIMARS fleet could make ports, staging areas, landing-force assembly zones, and support infrastructure more vulnerable during the critical early phase of a conflict.

This live-fire event also fits into a broader transformation of Taiwan’s land-based precision fires. The United States has approved a possible sale to Taiwan that includes 82 additional M142 HIMARS launchers, 420 M57 Army Tactical Missile System missiles, hundreds of GMLRS rocket pods, and International Field Artillery Tactical Data Systems. This indicates that HIMARS is intended to become part of a larger network of launchers, munitions, targeting systems, and command architecture rather than a standalone capability. If linked to drones, radars, maritime surveillance assets, and allied intelligence, HIMARS could support a more distributed form of defense in which Taiwan’s army can strike quickly from concealed positions while avoiding the vulnerability of static artillery concentrations.

The U.S. use of M142 HIMARS during Operation Epic Fury offers another relevant comparison. In that campaign, U.S. forces employed land-based precision fires as part of a broader joint operation against Iranian military and naval-related targets. Although the operational setting in the Middle East differs from the Taiwan Strait, the lesson is relevant: mobile rocket and missile systems are increasingly being used beyond traditional ground-fire missions. For Taiwan, this reinforces the value of HIMARS as part of a wider denial architecture, where mobile launchers, sensors, targeting networks, and command systems could be combined to threaten staging areas, logistics corridors, port facilities, and other high-value targets supporting an amphibious operation.

The civil-military dimension of the firing also deserves attention. The Fifth Combat Zone thanked the Taichung City Government, Dajia District Office, and residents of Dajia and Qingshui for supporting the provision of firing positions. This detail shows that Taiwan’s HIMARS concept depends not only on imported hardware, but also on local coordination, infrastructure access, public support, and the ability to operate from dispersed positions in a densely populated environment. The phrase “the battlefield as a training ground” reflects a wider requirement for Taiwan: high-value systems must be able to move through real terrain, use temporary firing positions, and remain connected to the command network while avoiding detection. In this sense, the exercise demonstrated both military readiness and the early foundations of whole-of-society defense resilience.

Taiwan’s first HIMARS live-fire verification in the western defense zone shows that the system is no longer only a newly delivered U.S.-made capability, but an emerging part of the island’s operational defense concept. The three-minute firing sequence, immediate withdrawal, and use of local terrain demonstrate a shift toward mobile, dispersed, and survivable precision fires. In a Taiwan Strait contingency, this type of capability could force an adversary to devote more resources to locating launchers, protecting staging areas, dispersing command nodes, and accelerating landing timelines under the threat of precision strikes. The message from this exercise is clear: Taiwan is not simply acquiring HIMARS; it is learning how to use it as a mobile deterrent designed to survive, reinforce, and strike across regions when the first hours of a conflict may prove decisive.

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• Land Defense News
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Written by Teoman S. Nicanci – Defense Analyst, Army Recognition Group

Teoman S. Nicanci holds degrees in Political Science, Comparative and International Politics, and International Relations and Diplomacy from leading Belgian universities, with research focused on Russian strategic behavior, defense technology, and modern warfare. He is a defense analyst at Army Recognition, specializing in the global defense industry, military armament, and emerging defense technologies.