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Ukraine's new AI-powered drone campaign across Crimea could collapse Russia's Southern Front
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Ukraine is expanding an AI-enabled drone campaign against the logistics network that sustains Russian forces across occupied southern Ukraine and Crimea, targeting fuel tankers, ammunition trucks, transport vehicles, and key supply routes rather than frontline combat units. The shift, highlighted in reporting by the BBC on May 31, 2026, aims to erode Russia’s ability to sustain offensive operations by reducing the flow of fuel, ammunition, spare parts, and personnel into the southern theater.

The campaign combines Palantir’s PRISMA battlefield-management system with long-range FPV and one-way attack drones to identify air-defense gaps, route strike packages at operational depth, and hit critical transport nodes from Mariupol to Dzhankoy. By focusing on transportation capacity as much as stockpiles, Ukraine is attempting to turn Russia’s concentrated logistics network into a vulnerability that could constrain combat power across Crimea, Kherson, Zaporizhzhia, and the wider Southern Front.

Related topic:Ukraine captures Russian position using only drones in first-ever combat operation without soldiers

If the quantity of fuel, ammunition, and equipment reaching combat units falls below daily consumption requirements, Russia's offensive operations become increasingly difficult to organize and sustain around Crimea. (Picture source: Telegram)

As reported by the BBC on May 31, 2026, Ukraine increasingly employs AI-powered drones to strike the logistics network sustaining Russian forces in occupied southern Ukraine, shifting a growing share of drone operations away from Russian combat units themselves and toward fuel tankers, ammunition trucks, transport vehicles, and supply convoys moving along key rear-area routes. Since April 2026, Ukrainian drone operations have concentrated on the Rostov-on-Don-Mariupol-Berdyansk-Melitopol-Dzhankoy corridor, a 500-kilometer logistics system that currently functions as Russia's principal overland connection between mainland Russia, occupied southern Ukraine, and Crimea.

The importance of this corridor increased substantially following the progressive degradation of the Kerch Strait crossing, which forced a larger proportion of military traffic onto road and rail routes that extend through occupied territories. Therefore, on May 27, Digital Transformation Minister Mykhailo Fedorov announced a dedicated $113 million "logistics lockdown" initiative designed to increase Ukraine's ability to conduct strikes at operational depth. The objective is to reduce the volume of fuel, ammunition, spare parts, and personnel that can move through the southern theater every day: if Russian units consume more supplies than the logistics network can deliver, combat effectiveness declines regardless of available manpower.

The campaign is enabled by a command architecture increasingly built around Palantir's PRISMA software environment. Ukrainian military intelligence units use the American PRISMA system to merge real-time battlefield telemetry, active radar positions, historical drone flight paths, and targeting intelligence into a single operational picture. The system continuously identifies gaps between Russian radar sectors, maps air defense coverage, and generates optimized flight corridors for Ukraine's drone operations. This process shortens the sensor-to-shooter cycle by transforming reconnaissance data directly into strike opportunities. Instead of individual operators manually selecting routes, strike packages can be generated based on known radar locations, electronic warfare coverage, and historical mission data.

Mid-course navigation is maintained through Starlink connectivity and mesh-relay networks, while terminal guidance increasingly relies on onboard processing and machine-vision target recognition. The practical consequence is that dozens of Ukrainian drones can be routed simultaneously through identified air defense gaps toward multiple targets located across hundreds of kilometers. In operational terms, PRISMA functions as a tool for identifying vulnerabilities in Russian ground lines of communication and optimizing strike assets against the highest-value bottlenecks within the logistics network. The significance of Ukraine's intermediate-range strike campaign also lies in the distances currently reached.

Before 2026, Ukraine's FPV and loitering munitions generally reached 10 to 20 kilometers behind the line of contact. Fiber-optic FPV systems later expanded that depth to approximately 25 to 50 kilometers while reducing vulnerability to electronic warfare. The introduction of Hornet one-way attack drones created a new engagement envelope extending from 75 kilometers to more than 150 kilometers, fundamentally changing the geography of the battlefield. Mariupol, located roughly 80 to 100 kilometers from active combat sectors, moved inside the practical strike range of Ukrainian tactical units. Dzhankoy, situated approximately 120 to 150 kilometers behind the southern front and serving as Crimea's primary rail-sorting center, also entered the engagement zone.

A verified strike against a moving Russian UAZ truck at a depth of 102 kilometers demonstrated that Ukraine's low-cost FPV drones can now bridge the entire operational gap between the frontline and rear logistics nodes without requiring carrier or relay drones. Russian vehicles moving from Rostov-on-Don toward Crimea no longer face risk only during final delivery to frontline units, as they remain vulnerable during much of their transit across the southern theater, exposing Russia's key logistics assets to a near-certain destruction throughout their journey. Russia's logistics network, now under constant attack, relies on a limited number of critical nodes.

The fuel crisis hit both civilian and military consumers in Crimea, as they draw from the same regional fuel distribution system, with oil arriving in Crimea must either cross the Kerch route, arrive by maritime transport, or move south through the R-280 corridor. (Picture source: Telegram)

Rostov-on-Don functions as the primary rail-to-truck transfer center for the southern theater. Ammunition, fuel, armored vehicles, and military equipment arriving from Russian industrial regions are consolidated there before moving south and west. Mariupol, for its part, serves as the largest distribution hub in occupied southern Ukraine, redistributing cargo arriving from Russia toward Berdyansk, Melitopol, and frontline formations. Berdyansk acts as a coastal transfer point and geographic bottleneck through which large volumes of traffic must pass. Melitopol connects occupied Donetsk, occupied Zaporizhzhia, and Crimea, making it one of the most important logistics junctions in southern Ukraine.

Dzhankoy serves as the principal sorting node inside Crimea, distributing incoming military cargo toward Sevastopol, Kherson, and other operational sectors. Because these locations form a sequential network, disruption at a single point affects multiple downstream sectors simultaneously. A reduction in throughput at Mariupol or Berdyansk can directly influence the flow of ammunition and fuel reaching Zaporizhzhia, Kherson, and Crimea. The network's efficiency is derived from concentration, and this same concentration creates vulnerability because relatively few nodes process a large share of total traffic. Ukraine's targeting logic focuses on transportation capacity rather than stored inventories, as Russia's brigades require several hundred tonnes of supplies every day to sustain combat operations.

Ammunition, diesel fuel, food, lubricants, replacement components, and engineering materials must arrive continuously to maintain operational tempo. A standard ammunition truck can transport approximately five to ten tonnes of cargo. A fuel tanker can carry between 20,000 and 40,000 liters of fuel. Destroying one vehicle, therefore, removes both the cargo being transported and the future carrying capacity represented by the vehicle itself. This distinction is important. If 100 fuel tankers are destroyed, the immediate fuel loss is significant, but the longer-term effect is the elimination of the transport fleet required to move future fuel shipments.

On May 29, 2026, a reported record of 483 transport vehicles was neutralized in a single day, and such losses create cumulative effects. Even if Russia possesses adequate ammunition and fuel stockpiles in rear areas, those supplies remain operationally irrelevant if insufficient transportation assets exist to move them to frontline formations. Intermediate-range strikes also support Ukraine's strategic drone campaign. Nearly 50 percent of mid-range sorties have reportedly been directed against Russia's radar stations, surface-to-air missile launchers, and early-warning systems, such as the P-18 and PRV-16 radars. The objective is not simply to destroy individual radar systems but to create gaps within the radar network protecting occupied territories.

Every radar removed from the network expands the size of undefended air corridors available to follow-on logistic strikes. This effort supports HUR's Vector long-range drone force, which employs systems such as the Sichen drone with a range of 870 miles alongside larger jet-powered one-way attack drones. By May 2026, Ukraine's strategic drone inventory reportedly achieved a maximum operational reach of 3,500 kilometers. That distance places key military-industrial infrastructure in the Urals and western Siberia within range. On May 29, air raid sirens sounded across the Urals region, demonstrating that facilities previously considered geographically insulated now face potential exposure. The relationship between intermediate and strategic operations is therefore direct.

Another adaptation has been the appearance of camouflage resembling First World War-era dazzle paint on Russian fuel tankers, cargo trucks, and other logistics vehicles, but the effectiveness of these measures remains uncertain. (Picture source: Telegram)

Intermediate-range drones suppress radar coverage and degrade air defense networks. Strategic drones exploit the resulting corridors to penetrate deeper into Russian airspace. Developments in Crimea provide one of the clearest indicators of the campaign's effects. On June 1, Sergei Aksyonov, a Russian politician serving as the head of the occupied Crimea, introduced rationing measures for Ai-95 gasoline, replacing unrestricted retail sales with a coupon-based distribution system. Long vehicle queues subsequently appeared at filling stations across Sevastopol. Crimea contains more than two million civilian residents while simultaneously supporting major military installations, naval infrastructure, and logistics facilities.

Both civilian and military consumers draw from the same regional fuel-distribution system. Fuel arriving in Crimea must either cross the Kerch route, arrive by maritime transport, or move south through the R-280 corridor. Restrictions implemented after weeks of Ukrainian attacks against fuel tankers and logistics vehicles north of the peninsula suggest that transportation had become the critical constraint. This distinction matters. Logistics systems often fail not because supplies cease to exist but because transportation networks can no longer distribute those supplies efficiently, which reminds me of the situation in Japan, or even Germany, at the end of the Second World War.

Russian countermeasures have also imposed high costs on the logistics network itself. According to data collected across the southern theater, convoy sizes have been reduced dramatically, with some formations limiting movements to pairs of vehicles rather than large transport columns. This reduces the risk of catastrophic losses from drone attacks but also reduces transport efficiency. A shipment previously moved by a large convoy must now be distributed across many smaller movements. Another adaptation has been the appearance of camouflage resembling First World War-era dazzle paint, on fuel tankers, cargo trucks, and other logistics vehicles.

Many Ukrainian strike drones rely on onboard optical recognition algorithms trained to identify vehicle outlines and proportions, and those irregular black-and-white patterns are intended to reduce the probability of successful autonomous lock-on, but the effectiveness of these measures remains uncertain. Additional escort vehicles, electronic warfare systems, and security personnel are also required. Russian logistics units have increasingly shifted traffic away from the M-14 and M-18 highways and onto agricultural tracks and unimproved roads. Heavy vehicles operating off-road consume more fuel, travel more slowly, and experience higher mechanical wear rates.

Spare parts consumption also increased while maintenance intervals shortened. Consequently, even vehicles that successfully complete deliveries impose higher sustainment costs on Russia's weakening logistics system. The Ukrainian campaign, therefore, generates losses through multiple mechanisms simultaneously: direct destruction, increased operating costs, longer transit times, higher vehicle wear, and greater demand for security assets. The growing use of dazzle paint also reflects concern within Russian logistics units about the increasing role of Ukraine's AI-assisted targeting to reduce traditional operational constraints.

A verified strike against a moving Russian UAZ truck at a depth of 102 kilometers demonstrated that Ukraine's low-cost FPV drones can now bridge the entire operational gap between the frontline and rear logistics nodes. (Picture source: Telegram)

Hornet drones employ onboard machine-vision systems trained using thousands of hours of imagery of Russian military equipment. Once launched toward a target area through Starlink connectivity or pre-programmed navigation, the drone can identify, classify, and engage moving vehicles without continuous operator control. This directly addresses a longstanding limitation in drone warfare: the requirement for human operators to track targets throughout the engagement sequence. It also reduces vulnerability to electronic warfare, as traditional jamming techniques seek to sever the connection between drone and operator.

Autonomous terminal guidance removes much of that dependency, and, as a result, Ukraine's strike units can process significantly larger numbers of Russian targets per day. This operational model is further supported by rapidly expanding production capacity. Ukrainian FPV production increased from approximately 3,000 to 5,000 units in 2022 to roughly two million units in 2024 and four million units in 2025. By mid-2026, annualized output had reached between seven and eight million drones. According to Deputy Defense Minister Mstyslav Banik on June 2, Ukraine possesses sufficient industrial infrastructure to scale production to 20 million drones annually if additional financing becomes available.

Standard Sternenko FPV drones cost roughly $500, while winged long-range FPV variants cost roughly $640, and Wild Hornets Sting interceptor drones cost approximately $2,500. By comparison, Patriot PAC-3 interceptors cost roughly $3 million each, while the value of many targeted radar systems, fuel installations, and armored vehicles reaches several million dollars per target. This cost relationship allows large numbers of strike sorties to be generated at a fraction of the replacement cost imposed on the defender. The broader significance of the Ukrainian drone campaign becomes visible when measured against Russian battlefield performance.

During the first five months of 2026, Russian forces reportedly captured 15.6 times less territory than during the equivalent period in 2025. Advances along key sectors slowed to between 15 and 70 meters per day. The logistics-lockdown concept seeks to reinforce that trend by reducing the volume of ammunition, diesel fuel, and replacement equipment available to frontline formations. Individual vehicle losses, fuel rationing measures, and radar suppression operations are therefore components of a larger operational design. The campaign's ultimate objective is not the destruction of trucks but the reduction of daily delivered tonnage.

If the quantity of fuel, ammunition, and equipment reaching combat units falls below daily consumption requirements, Russia's offensive operations become increasingly difficult to organize and sustain. The central question is therefore not how many vehicles are destroyed but how many tonnes of materiel successfully reach Russian formations each day. That metric will soon determine whether Russia's southern logistics network continues functioning as an effective sustainment system or gradually becomes a bottleneck constraining operations across the entire Ukrainian theater.

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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Ukraine requests US authorization to produce Patriot PAC-3 MSE missiles to solve air defense crisis
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Ukraine has formally asked the United States to authorize licensed production of Patriot PAC-3 MSE interceptors, a move confirmed by President Volodymyr Zelensky to CBS News on May 29, 2026, as Russian ballistic missile attacks continue to strain Ukraine’s air defense network. The request targets the growing gap between interceptor consumption and production, highlighting that missile manufacturing capacity, not the number of Patriot launchers, has become the critical factor in sustaining Ukraine’s ability to defeat high-speed ballistic threats.

The PAC-3 MSE remains one of the few Western interceptors optimized to destroy ballistic missiles such as the Russian Iskander-M and Kinzhal, making it central to the defense of key Ukrainian cities and infrastructure. If approved, Ukrainian participation in Patriot production would expand long-term interceptor output for Ukraine, the United States, and allied operators, underscoring how industrial capacity has become as strategically important as battlefield air defense systems themselves.

Related topic:Can Ukraine create an alternative to the U.S. Patriot air defense missile system with Germany?

Currently, every PAC-3 missile produced must simultaneously support U.S. replenishment requirements, Ukrainian operational demands, and standing obligations to Patriot operators across Europe, Asia, and the Middle East. (Picture source: Australian MoD)

On May 29, 2026, Ukrainian President Volodymyr Zelensky confirmed to CBS News that Ukraine had formally requested U.S. authorization to manufacture Patriot PAC-3 MSE interceptors under license, following letters sent to the White House and Congress amid continuing Russian ballistic missile attacks. The request was not primarily linked to the number of Patriot batteries available in service, but to the growing mismatch between interceptor consumption and interceptor production. Zelensky cited current production at roughly 60-65 PAC-3 interceptors per month, a figure that has become increasingly insufficient because Ukraine's estimated routine expenditure already stands at 60-70 interceptors per month.

During periods of intensive missile attacks, expenditure can increase to an estimated 150 to 180 Patriot interceptors per month, exceeding current production by a factor of nearly three. The proposal emerged as the United States, Ukraine, European allies, and Middle Eastern operators compete for access to the same production lines. In practical terms, the debate concerns industrial capacity rather than launcher availability, with missile production becoming the principal bottleneck in ballistic missile defense. The importance of the Patriot for Ukraine stems from the nature of the threat it is designed to counter.

Unlike NASAMS or IRIS-T SLM, which are optimized primarily for aircraft, cruise missiles and other aerodynamic targets, PAC-3 MSE was specifically developed for ballistic missile interception. The missile employs a hit-to-kill mechanism, meaning that destruction occurs through direct collision rather than by detonating a fragmentation warhead near the target. This distinction becomes critical against missiles such as the Russian Iskander-M, which can approach Mach 6-7 during the terminal phase and maneuver during portions of its flight profile.

Russia is estimated to manufacture 40 to 50 Iskander-M ballistic missiles and roughly 10 Kh-47M2 Kinzhal air-launched ballistic missiles per month. Combined, that production level of 50-60 ballistic missiles closely mirrors Ukraine's minimum monthly Patriot expenditure, illustrating how Russian missile production alone can absorb nearly an entire month's current PAC-3 output. Since 2023, Patriot batteries have repeatedly been deployed around Kyiv specifically to counter Iskander attacks because few Western systems fielded in Europe are optimized for routine interception of such threats.

Ukraine's request also coincides with a significant depletion and replenishment challenge facing the United States. Prior to the war, U.S. PAC-3 inventories were estimated at approximately 2,330 missiles. During the 2026 conflict involving Iran, U.S. forces reportedly fired between 1,060 and 1,430 Patriot interceptors, equivalent to roughly 45-60 percent of those estimated inventories. Even at the lower estimate, more than four years of production at the 2024 manufacturing rate would be required to replace the missiles expended. At the higher estimate, replacement requirements would approach the equivalent of nearly seven years of 2024 production.

This calculation illustrates why interceptor production has become a strategic issue extending beyond Ukraine. Every PAC-3 missile produced must simultaneously support U.S. replenishment requirements, Ukrainian operational demands and standing obligations to Patriot operators across Europe, Asia and the Middle East. Production expansion is constrained by manufacturing realities rather than funding alone. Lockheed Martin produced roughly 500 PAC-3 MSE interceptors in 2024 and approximately 620 in 2025, representing annual growth of about 24 percent but still averaging only slightly more than 52 missiles per month.

The company intends to increase production toward 2,000 missiles annually by 2030, which would correspond to roughly 167 missiles per month, yet even that future objective would barely cover Ukraine's peak monthly requirements during periods of intense missile activity. Patriot interceptors are assembled from a large network of specialized suppliers rather than a single production line. RTX manufactures major radar and launcher components, while other suppliers provide rocket motors, seekers, guidance electronics, flight-control systems and software packages. Each interceptor contains hundreds of precision components that must function under extreme acceleration, high temperatures and very short engagement timelines.

Unlike artillery shells, which can tolerate limited defect rates, a single malfunction in a ballistic missile interceptor can result in the complete loss of an engagement opportunity. The limitations of European alternatives, even the IRIS-T SLM/X, help explain why Kyiv is focused specifically on Patriot production. Europe's principal anti-ballistic missile system, the SAMP/T, employs the Aster 30 interceptor developed by MBDA and Eurosam. While capable against a range of air and missile threats, Aster production capacity remains substantially below worldwide Patriot demand. The Patriot is currently operated by roughly 19 countries, generating decades of accumulated logistics infrastructure, maintenance facilities, training pipelines and missile stockpiles.

The SAMP/T remains concentrated primarily within France and Italy, with additional but limited deployments elsewhere. This disparity is reflected in procurement decisions across Europe, where NATO's European Sky Shield Initiative relies heavily on Patriot and Israeli Arrow acquisitions rather than solely on European missile defense systems. No European program currently possesses the industrial depth required to replace Patriot inventories at an equivalent scale during the remainder of the decade. Even under an accelerated approval process, a Ukrainian production license would not immediately generate operational missiles.

Patriot missile manufacturing requires secure facilities, specialized tooling, certified suppliers and access to controlled technical data. Production personnel must complete qualification procedures measured in years because ballistic missile interceptors require far stricter tolerances than most conventional munitions. New suppliers entering the Patriot ecosystem must pass validation and reliability testing before components can be integrated into operational missiles. For this reason, initial Ukrainian participation would likely focus on selected components, subassemblies or support equipment rather than complete interceptor production.

Building a fully certified production line capable of manufacturing PAC-3 MSE interceptors from start to finish would require a multi-year industrial effort. The immediate value of licensing would therefore be the expansion of future production capacity rather than the rapid delivery of additional missiles to the battlefield. The proposal is consistent with broader trends in Ukraine's defense-industrial policy since 2022. Kyiv has increasingly sought licensed manufacturing arrangements instead of relying exclusively on imported military equipment.

Domestic drone production, the best example, has expanded from small wartime workshops into one of the largest UAV manufacturing sectors in Europe, while local production initiatives have also been pursued for artillery ammunition, armored vehicles and missile-related technologies. On the battlefield, Ukraine increasingly reserves Patriot batteries for engagements against Iskander-M and Kinzhal missiles because those targets present challenges beyond the capabilities of most other available systems. Cruise missile interceptions are increasingly assigned to IRIS-T SLM and NASAMS batteries, while Shahed drones are engaged by Gepard vehicles, mobile anti-aircraft teams, electronic warfare systems and interceptor drones.

Ukrainian Patriot crews have also increasingly adopted single-interceptor engagements instead of the two-to-four missile doctrine traditionally employed by many Western operators, accepting lower engagement probabilities in exchange for preserving scarce missile inventories. At the strategic level, Zelensky's proposal highlights the absence of a European equivalent to Patriot rather than a temporary wartime shortage. Switzerland has already been informed that Patriot deliveries may be delayed because production capacity is being allocated to higher-priority requirements, demonstrating that industrial constraints are affecting countries beyond Ukraine.

Developing an entirely new European interceptor family would require billions of euros in investment and likely more than a decade of development involving radar design, battle-management software, interceptor engineering, flight testing and operational certification. During that period, NATO's ballistic missile defense architecture would remain dependent on Patriot, THAAD and Aegis. From Kyiv's perspective, expanding PAC-3 production capacity through additional licensed manufacturing lines offers a solution measured in years rather than decades. The central issue is therefore whether Washington is prepared to transfer sufficient industrial access and technical knowledge to allow new Patriot production capacity to emerge outside the existing U.S.-based manufacturing network.

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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Ukraine to acquire 20 Saab Gripen E/F fighter jets from Sweden via €2.5 billion EU loan
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Ukraine is moving toward acquiring up to 20 Saab Gripen E/F fighters from Sweden under Stockholm’s newly approved Support Package 22, a decision announced on May 28, 2026, that would sharply expand Kyiv’s ability to survive and fight inside Russia’s heavily contested air-defense and electronic warfare environment. Financed through a €2.5 billion EU Ukraine Support Loan and reinforced by the transfer of up to 16 Gripen C/D fighters from Swedish inventories beginning in 2027, the package gives Ukraine a scalable path toward building one of Europe’s largest Western-origin tactical fighter fleets while strengthening NATO’s northern and eastern airpower integration.

The Gripen E/F combines long-range Meteor missiles, advanced electronic warfare systems, passive infrared detection, and dispersed highway-based operations into a fighter optimized for high-intensity warfare against a technologically advanced opponent. Designed around Sweden’s Cold War-era Bas 90 doctrine, the aircraft can operate from damaged or improvised airstrips with small support teams, giving Ukraine a survivable air combat platform specifically suited to enduring Russian missile strikes, GPS jamming, and electromagnetic attacks against fixed airbases.

Related topic:Sweden approves transfer of 16 Gripen C/D fighter jets to Ukraine to counter Russian missile attacks

The Gripen E/F will significantly expand Ukraine's combat capabilities by carrying up to 7.2 tons of external payload across 10 hardpoints, enabling the simultaneous deployment of Meteor, IRIS-T, and AMRAAM missiles, as well as precision-guided strike munitions. (Picture source: Saab)

On May 28, 2026, Sweden approved negotiations for the sale of up to 20 Saab Gripen E/F fighters to Ukraine under Support Package 22 valued at SEK 25.2 billion, marking the start of a new era for the Ukrainian Air Force. Ukraine intends to finance the acquisition through €2.5 billion from the EU Ukraine Support Loan mechanism, while Stockholm simultaneously authorized the transfer of up to 16 Gripen C/D fighters from its active inventories beginning in 2027, with IRIS-T, AIM-120 AMRAAM, and MBDA Meteor missiles. The Gripen E/F sale follows the October 22, 2025, letter of intent signed in Linköping by Ulf Kristersson and Volodymyr Zelensky covering a possible Ukrainian requirement for 100 to 150 Gripen E fighters, larger than all previous Gripen export programs combined.

Sweden simultaneously approved the procurement of replacement Gripen Es for its own air force to offset C/D transfers, as Gripen E/F deliveries remain scheduled from 2030 because Saab production lines are already committed to Swedish and Brazilian orders and constrained by F414 engine manufacturing, avionics integration, and supplier chain throughput. The Gripen E/F incorporates major redesigns compared with the Gripen C/D variants despite retaining the same aerodynamic configuration and single-engine layout. The Gripen E/F uses a General Electric F414-GE-39E turbofan producing close to 98 kN, or 22,000 lbf, with afterburner, compared with roughly 80 kN from the Volvo RM12 installed on Gripen C/D fighters.

Internal fuel capacity rises from roughly 3.4 tons to approximately 5.4 tons, while maximum takeoff weight increases from roughly 14,000 kg to approximately 16,500 kg, extending endurance and payload flexibility. The E/F also carries ten external hardpoints supporting Meteor, IRIS-T, AMRAAM, Taurus KEPD 350, anti-ship missiles, guided bombs, reconnaissance pods, and external fuel tanks. Like the C/D, Saab optimized the Gripen E/F around reduced maintenance manpower requirements, lower flight-hour operating costs, and dispersed operations from highway strips under Sweden’s Bas 90 doctrine, developed during the Cold War around assumptions of Soviet strikes against fixed airfields during the opening phase of a conflict, an idea that can now be described as prescient.

The Gripen E’s sensor and electronic warfare architecture was also designed for sustained operations inside contested electromagnetic environments. The fighter integrates the Leonardo ES-05 Raven AESA radar equipped with a mechanically repositioned swashplate antenna, increasing off-axis coverage beyond conventional fixed-array AESA systems. The Gripen E/F also carries the Skyward-G infrared search and track system, enabling passive target detection without radar emissions. Saab’s Arexis electronic warfare suite, for its part, combines digital radar warning receivers, active jamming, emitter geolocation capability, automated decoy management, and distributed antenna arrays providing 360-degree surveillance coverage.

The Gripen E/F was engineered to continue operations under degraded radar performance, interrupted datalinks, and GPS interference, conditions directly relevant to Ukraine, where Russian Krasukha, Zhitel, Tirada, Pole-21, and Murmansk-BN electronic warfare systems are routinely employed against drones, aviation assets, navigation systems, and communications networks. Therefore, Sweden’s package also includes the procurement of additional electromagnetic warfare equipment intended to strengthen Ukrainian defensive capability against incoming Russian air threats and electronic attacks. The missile package will also substantially expand Ukraine’s beyond-visual-range combat capability compared with its current MiG-29 and Su-27 inventory.

The Gripen E can simultaneously carry Meteor missiles, IRIS-T short-range missiles, external fuel tanks, and precision-guided strike weapons without major mission-specific reconfiguration. The Meteor uses a throttleable ramjet propulsion system rather than a conventional rocket motor, allowing sustained energy retention during terminal engagement and extending effective range beyond older R-27 and R-77 missiles currently fielded by Ukrainian and Russian forces. The Gripen E/F’s mission system architecture also supports relatively rapid integration of NATO-standard munitions, including Taurus KEPD 350, SPEAR-class weapons, GBU-series guided bombs, and anti-ship missiles, depending on future Ukrainian procurement decisions.

Maximum external payload reaches approximately 7.2 tons, while the fighter’s datalink network supports cooperative target sharing and coordinated beyond-visual-range engagements between multiple fighters across dispersed sectors. Combined with passive infrared detection and integrated electronic warfare capability, these systems would complicate Russian tactical aviation operations near contested sectors. Ukraine’s operational environment since February 2022 increasingly favors aircraft like the Gripen, designed around dispersal, simplified logistics, and rapid sortie regeneration rather than dependence on large permanent airbases vulnerable to missile attack.

Russian strike campaigns have repeatedly targeted Ukrainian runways, hardened shelters, maintenance depots, fuel storage facilities, and command infrastructure with cruise missiles, ballistic missiles, drones, and glide bombs to reduce sortie generation capability. The Gripen’s operating doctrine directly addresses these vulnerabilities through Sweden’s Bas 90 road-based system supported by small technical detachments instead of centralized maintenance formations. Saab historically promoted turnaround procedures requiring close to ten minutes for air-to-air configurations, with refueling and rearming conducted by small conscript teams using limited support equipment.

Maintenance procedures also emphasize modular replacement of damaged systems rather than depot-level servicing, reducing infrastructure requirements and simplifying wartime aircraft recovery. When you think about it, Ukraine’s wartime logistics environment increasingly resembles the dispersed high-intensity conflict scenario around which the Gripen was originally developed. However, like many military assets, industrial production capacity remains the principal factor constraining future Ukrainian Gripen E/F acquisition. Sweden originally ordered 60 Gripen Es, while Brazil separately ordered 36 Gripen E/F fighters under a 2014 contract involving local assembly and technology transfer.

A future Ukrainian requirement reaching 100 to 150 fighters would exceed every previous Gripen export order combined and require substantial expansion of Swedish aerospace manufacturing throughput, subcontractor output, and supplier chain capacity, perhaps via Saab’s factories in Canada. Saab’s production system already supports simultaneous Swedish and Brazilian force-generation schedules, while bottlenecks affecting F414 engine production, AESA radar manufacturing, avionics integration, and electronic warfare components continue limiting expansion speed.

Stockholm’s simultaneous decision to procure replacement Gripen E fighters for its Air Force is intended to prevent reductions in Swedish air defense readiness during future C/D transfers and preserve continuity for Sweden’s combat aviation sector amid increasing Gripen demand following Russia’s invasion of Ukraine. Sweden confirmed that training programs for Ukrainian pilots and technicians have already begun and will intensify ahead of the Gripen C/D introduction from 2027 onward. Ukraine’s transition pathway is divided into two phases, beginning with Gripen C/D fielding before a migration toward Gripen E/F operations once newly-produced aircraft become available from 2030.

Transition between the variants, however, is simplified by shared cockpit logic, overlapping logistics architecture, and similar flight procedures, although the Gripen E introduces a revised avionics suite, larger fuel capacity, modified landing gear geometry, and more advanced electronic warfare systems. Swedish doctrine historically relied on distributed technical teams operating independently from centralized maintenance hubs, requiring Ukraine to establish domestic infrastructure for software support, spare parts storage, mission planning, weapons integration, and long-term sustainment.

Long-term operating costs will depend heavily on sortie rates, missile expenditure, survivability of dispersed operating locations, and reliability of NATO-standard spare part supply chains during prolonged combat operations. Despite these drawbacks (which, let us not forget, can be remedied), a future Ukrainian Gripen fleet approaching 100 aircraft would create one of the largest Western-origin tactical fighter inventories in Eastern Europe outside the United States and deepen military-industrial integration between Ukraine, Sweden, and NATO’s northern flank.

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.
Sweden approves transfer of 16 Gripen C/D fighter jets to Ukraine to counter Russian missile attacks
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Sweden has approved the transfer of up to 16 Gripen C/D fighter jets to Ukraine, a decision announced on May 28, 2026, that gives Kyiv a fighter platform specifically designed to survive sustained missile attacks against air bases and dispersed operating sites. The package combines operational aircraft, advanced air-to-air missiles, and long-term sustainment support, strengthening Ukraine’s ability to defend critical infrastructure and maintain combat aviation operations under continuous Russian strike pressure.

The Gripen C/D’s road-based operating doctrine, low maintenance footprint, and rapid turnaround capability align closely with Ukraine’s need to disperse aircraft away from vulnerable fixed airfields targeted by Russian missiles and drones. Combined with Meteor, AIM-120 AMRAAM, and IRIS-T missiles, the Swedish fighters are expected to reinforce Ukraine’s defensive counter-air network while accelerating the country’s broader transition toward a NATO-compatible tactical air force.

Related topic:Saab GlobalEye defeats U.S. Boeing Wedgetail for C$5 billion Canada Air Force AWACS contract

The Gripen C/D's operational doctrine is perfect for the Ukrainian Air Force because it enables fighters to operate from short road strips and decentralized highway sites with minimal maintenance personnel, directly neutralizing Russia's ability to disable permanent airbases with long-range missile strikes. (Picture source: Saab)

On May 28, 2026, Sweden approved the transfer of up to 16 Gripen C/Dfighter jets to Ukraine as part of Stockholm’s 22nd military support package valued at SEK 25.2 billion, while simultaneously authorizing the procurement of replacement Gripen E/Fs for the Swedish Air Force and negotiations for a separate Ukrainian acquisition of up to 20 newly built Gripen E/F fighters financed through the EU Ukraine Support Loan mechanism. The donated Gripen C/Ds will come directly from active Swedish Air Force inventory rather than reserve storage, representing close to one-sixth of Sweden’s roughly 94 operational Gripen C/D fighters and corresponding to one tactical squadron.

Deliveries are scheduled to begin in 2027, as Ukrainian pilot and technician training begins in 2026 using Swedish instruction pipelines and the two-seat Gripen D variant. The package also includes Meteor, AIM-120 AMRAAM, and IRIS-T missiles together with sustainment support, spare parts, maintenance assistance, and long-term replacement procurement for Sweden’s own combat aviation inventory. The Gripen agreement creates a two-track modernization process in which Ukraine receives operational Gripen C/D jets for near-term air defense requirements while separately building a future Gripen E/F fleet expected to enter service from 2030 onward, following the October 22, 2025, Ukrainian-Swedish letter of intent covering a possible fleet of between 100 and 150 Gripen fighters.

The Gripens donated to Ukraine by Sweden are operational C and D variants already integrated with NATO-standard weapons, Link 16 tactical datalink architecture, and Western Identification Friend or Foe (IFF) systems rather than downgraded export or reserve aircraft. Sweden selected the Gripen C/D because these fighters are already maintained at frontline readiness standards and can enter Ukrainian service significantly faster than new-production fighters requiring multi-year delivery timelines. The transfer package also includes spare engines, maintenance equipment, missile inventories, sustainment planning, logistics support, and technical training required to sustain operational sortie generation under wartime conditions.

The Gripen C serves as the single-seat combat variant while the Gripen D provides operational conversion and continuation training capability, allowing Ukraine to establish a domestic Gripen training structure after initial Swedish-led pilot instruction. Stockholm directly linked the donation to its procurement of replacement Gripen E/Fs for its own air force in order to avoid reducing long-term Swedish combat aviation capacity during the transition toward a predominantly E-model fleet. Ukraine’s parallel acquisition of up to 20 Gripen E/F fighters, therefore, functions separately from the immediate C/D transfer and is intended to establish a long-term NATO-compatible tactical aviation structure beyond the current conflict.

The Gripen C/D has a maximum takeoff weight of roughly 14,000 kg and is powered by a single Volvo RM12 turbofan derived from the General Electric F404, generating roughly 80 kN of thrust with afterburner and enabling speeds close to Mach 2 at altitude. Combat radius generally ranges between 800 and 1,000 km, depending on mission profile and external fuel configuration, while ferry range exceeds 3,000 km using drop tanks. More operationally important is the C/D’s dispersed operating structure under Sweden’s Bas 90 doctrine, which allows Gripens to operate from road strips measuring roughly 800 meters and from decentralized highway operating sites and forest maintenance areas.

Saab and the Swedish Air Force also prioritized simplified turnaround procedures, decentralized maintenance, and reduced manpower requirements during its development because Swedish Cold War operational planning assumed repeated Soviet missile attacks against fixed runways, fuel depots, shelters, and command facilities. These assumptions align closely with Ukrainian operational conditions, where Russian forces continue targeting aviation infrastructure using cruise missiles, ballistic missiles, drones, and reconnaissance-strike systems to disable permanent air bases.

The Gripen C/D fighters allocated for Ukraine are expected to include later modernization standards of the PS-05/A mechanically scanned pulse-Doppler radar developed by Ericsson and GEC-Marconi, with upgrades improving low-altitude target detection, simultaneous multi-target tracking, and look-down/shoot-down capability. The Gripen C/D integrates radar, electronic warfare, navigation, and datalink inputs into a fused cockpit architecture designed to reduce pilot workload during interception operations. Swedish operational doctrine prioritized survivability inside dense Soviet (and later Russian) integrated air defense environments, leading to the integration of an internal electronic warfare suite combining radar warning receivers, jamming functions, electronic countermeasures, and expendable countermeasure dispensers optimized for contested electromagnetic conditions.

Link 16 integration allows the Gripen C/D to exchange tactical data and targeting information with NATO-standard command-and-control systems, ground-based air defense networks, and Ukrainian F-16 formations. Compared to heavier Western fighters such as the Eurofighter Typhoon, the Gripen also requires fewer maintenance personnel, less support infrastructure, and reduced logistical concentration at operating sites, increasing its survivability under current war conditions. Stockholm identified air defense as Ukraine’s highest-priority operational requirement; therefore, the missile package accompanying the Gripen C/D transfer provides Ukraine with a complete air-intercept structure centered on the Meteor, the AIM-120 AMRAAM, and the IRIS-T.

The Meteor is operationally significant because the European missile uses a ramjet propulsion, allowing it to retain maneuverability and kinetic energy at ranges where older solid-fuel missiles lose effectiveness. The Gripen C/D was among the first operational fighter fleets certified for Meteor integration, making this aircraft-missile combination central to Sweden’s own long-range air defense doctrine, which Ukraine will benefit from. The U.S. AIM-120 AMRAAM ensures the compatibility with NATO-standard engagement procedures already being implemented around Ukrainian F-16 operations, simplifying tactical coordination, datalink-supported engagements, and missile logistics.

Finally, the German IRIS-T provides a high off-boresight short-range engagement capability integrated with helmet-mounted cueing systems, optimized for close-range combat and interception of low-flying cruise missiles and drones. The composition of the missile package indicates that Stockholm expects Gripen operations to focus primarily on defensive counter-air missions protecting Ukrainian infrastructure, logistics corridors, command facilities, and urban areas from continuing Russian missile and drone attacks. Sweden also allocated additional funding for electronic warfare systems, long-range capability support, and ammunition procurement within the same support package.

A key advantage for Ukraine is that the Gripen C/D’s maintenance structure and operational doctrine were engineered specifically for high-intensity warfare against a numerically superior adversary capable of sustained long-range strikes against fixed military infrastructure. Under Sweden’s Bas 90 doctrine, fighter jets disperse across highway strips, road bases, forest shelters, and decentralized maintenance points in order to complicate enemy targeting and preserve combat aviation capability after attacks against permanent airfields. Refueling and rearming procedures were intentionally simplified so turnaround operations could be conducted by relatively small technical teams with limited equipment support, reducing the operational signature visible to enemy reconnaissance systems.

Ukraine currently faces sustained Russian attacks against aviation infrastructure using Iskander ballistic missiles, Kh-101 cruise missiles, Shahed drones, and reconnaissance-strike complexes designed to identify and target aircraft operating locations. Therefore, the Gripen’s smaller maintenance footprint compared to heavier Western fighters directly supports Ukrainian requirements for dispersed operations because the aircraft can sustain higher sortie rates from temporary operating locations without extensive permanent infrastructure.

Swedish operational planning originally developed these procedures to counter Soviet missile and air campaigns expected to target Swedish air bases during the opening phase of a conflict, making Gripen one of the few Western fighters specifically designed around sustained, dispersed wartime operations inside contested territory. Finally, the Gripen C/D will enter a Ukrainian Air Force currently transitioning from Soviet-origin combat aviation toward NATO-standard aircraft, communications systems, weapons integration, and tactical procedures.

Ukraine continues operating MiG-29, Su-27, Su-24, and Su-25 fighters while integrating incoming F-16 fleets, with Gripen introducing a second Western fighter structure optimized for lower sustainment requirements and dispersed operations, before the arrival of the Rafale. Compared to the F-16, the Gripen requires fewer support personnel, less ground equipment, shorter turnaround cycles, and reduced maintenance infrastructure, factors likely to improve sortie generation rates under wartime conditions where operating locations remain vulnerable to Russian strikes.

Swedish authorities have already initiated Ukrainian pilot and technician training programs in 2026, while the two-seat Gripen D variant will support operational conversion and continuation training after the Gripen C enters Ukrainian service. Initial Gripen operations are expected to focus on defensive counter-air patrols and cruise missile interception over central and western Ukraine rather than offensive strike missions against heavily defended Russian territory. If Ukraine eventually proceeds toward the broader 100-150 Gripen objective outlined in the October 2025 bilateral agreement, the country would require entirely new pilot training pipelines, logistics systems, maintenance depots, weapons stockpiles, and tactical aviation command structures supporting one of Europe’s largest NATO-compatible fighter fleets.

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.
Ukraine unveils new Inguar-4 6x6 armored recovery vehicle to rescue NATO assets on battlefield
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Ukraine has unveiled the Inguar-4, a new domestically built 6x6 armored recovery vehicle designed to extract damaged armored vehicles weighing up to 30 tons from contested battlefield zones, as demonstrated during testing released by Inguar Defence on May 11, 2026. The vehicle directly addresses one of Ukraine’s growing wartime vulnerabilities by improving the recovery speed of NATO-supplied and locally produced armored fleets before artillery or drone strikes can destroy repairable assets.

The Inguar-4 combines a purpose-built military chassis, modular repair-friendly construction, and armored survivability systems tailored for high-intensity combat operations rather than civilian vehicle conversion. Its recovery configuration can support diverse fleets including M113s, MaxxPros, Kirpis, Roshel Senators, and Inguar-3 vehicles, reinforcing Ukraine’s broader push toward self-sustaining armored ecosystems focused on battlefield recovery, force regeneration, and long-term defense industrial independence.

Related topic:Ukraine may have lost its sole Swedish Bgbv 90 armored recovery vehicle in a Russian drone strike

The Inguar-4 6x6 armored recovery vehicle can evacuate multiple armored vehicle types currently operated by Ukrainian forces, including the M113, Inguar-3, Kozak, Novator, Roshel Senator, MaxxPro, Kirpi, BAT UMG, and Gyurza. (Picture source: Inguar Defence)

On May 11, 2026, the Ukrainian company Inguar Defence unveiled the Inguar-4, a domestically developed 6x6 armored vehicle configured initially as an armored recovery and repair vehicle (ARRV) for vehicles weighing up to 30 tons. Field testing showed the vehicle towing an Inguar-3 through a rear-mounted hydraulic recovery assembly. The Inguar-4 ARV emerged as Ukrainian forces expanded mixed armored fleets composed of domestic, U.S., Canadian, and Turkish vehicles after 2022, creating growing demand for compatible armored recovery assets. Company CEO Artem Yushchuk linked the program directly to shortages in battlefield evacuation capacity and increasing operational use of the Inguar-3 family.

The Inguar-4 also reflects a broader Ukrainian transition away from Ford F-series, Dodge Ram, Toyota, and MAN-based wartime armored conversions toward purpose-built military chassis optimized for survivability, mobility, modularity, and repairability. The Inguar-4 chassis is derived from the Inguar-3 but incorporates a third axle and independent suspension on all axles to improve payload distribution, towing stability, and off-road mobility under heavy loads. The vehicle uses a frame-based construction instead of a monocoque hull, allowing mine-damaged structural sections to be repaired or replaced without rebuilding the entire armored body.

The driveline integrates a central tire inflation system (CTIS) together with front, rear, and inter-axle differential locks for degraded terrain operations. Unlike earlier Ukrainian armored vehicles assembled on civilian donor chassis, the Inguar-4 was engineered specifically for combat loads and modular integration of heavy recovery systems, cranes, electronic warfare modules, and future mission equipment. The separation of the crew compartment, chassis, and rear mission module also simplifies maintenance and post-damage reconstruction. The first operational configuration of the Inguar-4 is an armored recovery and repair vehicle (ARRV) equipped with a hydraulic extraction and towing system capable of lifting immobilized armored vehicles from damaged terrain, obstacles, or cratered road sections.

The recovery package was developed primarily to support expanding numbers of Inguar-3 vehicles entering Ukrainian service, although the operational requirement broadened as mixed armored fleets increased after 2022. Delayed evacuation of damaged vehicles frequently results in additional artillery or drone strikes before recovery teams can access them, transforming repairable vehicles into total losses. The Inguar-4, therefore, addresses not only tactical towing requirements but also sustainment and force regeneration capacity by shortening evacuation timelines in contested sectors.

According to Inguar Defence, the ARRV configuration can recover multiple armored vehicle types currently used by Ukrainian forces, including the M113, Kozak, Novator, Roshel Senator, MaxxPro, Kirpi, BAT UMG, Gyurza, and Inguar-3 families. These vehicles differ substantially in axle geometry, suspension layout, and combat weight, complicating recovery standardization. The tracked M113 generally operates in the 12 to 15 ton range, depending on armor configuration, while MaxxPro and Kirpi variants commonly exceed 16 to 18 tons combat-loaded.

The Inguar-4's recovery system incorporates adaptable towing hardware and attachment points intended to support multiple recovery geometries across heterogeneous fleets. Domestic compatibility reduces dependence on imported armored recovery vehicles, which require separate maintenance ecosystems and foreign sustainment chains. Inguar Defence indicated that nearly 60% of the chassis and suspension architecture has already been localized within Ukraine through internal production and domestic subcontracting.

The tubular frame is produced using laser-cut steel tubing assembled on dedicated welding fixtures, while localized components include subframes, steering assemblies, upper and lower control arms, springs, hydraulic systems, fuel systems, pneumatic systems, exhaust systems, radiators, intercoolers, and armored glazing integration. Engines, transmissions, transfer cases, and selected electronics remain imported because Ukraine lacks large-scale heavy drivetrain manufacturing infrastructure.

According to company figures, gearbox production alone requires multi-million-dollar precision metalworking systems currently unavailable at scale inside Ukraine. Future vehicle programs are expected to incorporate domestically produced reduction gear systems and fully localized suspension assemblies. The protection layout combines armored steel, Armox steel, air-gap spacing, and 16 mm aluminum layers, with total armor thickness reaching 30 mm in selected sections. The broader Inguar-3 family is already associated with STANAG 4569 Level 3 protection standards.

Internal survivability measures include blast-protected seating, independent fire suppression systems for the engine and crew compartments, heated ballistic glazing, non-flammable interior materials, and replacement of plastic piping with metal piping to reduce post-impact ignition risks. The electrical architecture uses electronically managed power-distribution modules and resettable automatic circuit systems instead of conventional automotive fuse layouts. These engineering priorities emerged from battlefield observations showing that civilian-derived armored vehicles frequently suffered catastrophic internal fires after FPV drone strikes because of combustible automotive-grade materials and polymer-heavy interiors.

Serially produced Inguar-3 4x4 vehicles are currently delivered at nearly $430,000 per unit, while the baseline Inguar-4 6x6 chassis without specialized rear mission equipment is expected to cost nearly $500,000. Recovery-equipped configurations integrating cranes, hydraulic extraction systems, and towing assemblies exceed that figure because of additional mission equipment and structural reinforcement requirements. Imported engines and transmissions account for nearly €60,000 per vehicle, while other major cost drivers include armored materials, suspension assemblies, armored glazing, blast-protected seating, fire suppression systems, and electronic power management equipment.

Inguar Defence compared these figures with NATO-market armored vehicles frequently exceeding €600,000 in comparable categories. Beyond the ARRV role, the Inguar-4 chassis is intended to support future weapon carriers, tractors, and other specialized variants. Moreover, a potential cooperation with a Norwegian company on counter-UAS systems based on the Inguar-3 architecture reflects broader Ukrainian efforts to establish vertically integrated armored vehicle ecosystems combining domestic production, repair, sustainment, and battlefield support functions.

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.
Ukraine's Tryzub laser weapon enters final testing stage to destroy Russian Shahed drones
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Ukraine is moving closer to deploying the Tryzub laser weapon against Russian Shahed drones, as Celebra Tech revealed on May 7, 2026, that the system has entered final testing with growing capability against FPV and reconnaissance UAVs. Also known as Trident, this laser weapon could give Ukraine a cheaper and faster response to Russia’s mass drone attacks by reducing dependence on costly air defense missiles while strengthening protection of critical infrastructure and rear area targets.

The latest Tryzub variant, mounted on a trailer, can destroy FPV drones at up to 900 meters and reconnaissance drones at 1,500 meters while testing continues for future interceptions of Shahed-type drones at ranges approaching 5 km. Equipped with AI-assisted targeting radar integration and automatic tracking, the Ukrainian system reflects the accelerating global shift toward directed energy weapons designed to counter large-scale drone warfare at lower operational cost.

Related topic:Ukraine deploys new Tryzub laser system to target Russian drones at high altitudes

Mounted on a trailer, the latest variant of the Tryzub laser weapon integrates AI-assisted terminal guidance, automatic target acquisition and tracking, and radar-linked trajectory processing to improve its effectiveness against Russian drones. (Picture source: Celebra Tech)

On May 7, 2026, the Ukrainian defense company Celebra Tech disclosed a new configuration of its Tryzub laser weapon integrated into a trailer-mounted counter-UAV system for defense against FPV drones, reconnaissance UAVs, and potentially Shahed kamikaze drones. The Tryzub (Trident) entered final testing during the first half of 2026 after roughly 17 months of incremental public disclosures by Ukrainian military personnel and the manufacturer. According to the company, the current version can destroy FPV drones at 800-900 m and reconnaissance drones at 1,500 m, while development work continues toward engagements against Shahed-type targets at distances approaching 5 km.

Available imagery shows a stabilized optical director mounted above a trailer-based support section containing electrical and control equipment connected to electro-optical targeting systems and radar-linked interfaces. No information has been released regarding beam wavelength, laser architecture, power output, thermal dissipation rates, or sustained firing endurance. The Tryzub laser weapon first entered public view on December 16, 2024, during the European Defense Industry conference in Kyiv. Colonel Vadym Sukharevskyi stated during the event that Ukraine possessed a laser weapon capable of engaging aerial targets above 2 km altitude.

On February 6, 2025, Sukharevskyi confirmed that the system had already entered operational use against airborne targets, although no information followed concerning deployment areas or confirmed interceptions. On April 14, 2025, Ukrainian personnel released the first official footage showing the system operating against a stationary ground target and dazzling the optical sensor of a fiber-optic FPV drone. The footage also revealed that target tracking at that stage relied heavily on manual joystick control despite the presence of an optronic tracking station.

During the same presentation cycle, Ukrainian personnel claimed engagement capability at 3 km against drones, guided bombs, cruise missiles, and ballistic missiles, 5 km against helicopters and aircraft, and optical dazzling effects at distances reaching 10 km, although no released footage through May 2026 demonstrated engagements at those ranges. The current Tryzub configuration differs structurally from several Western laser systems already entering operational evaluation or limited service. Unlike the HELIOS system installed aboard destroyers or the British DragonFire, the Tryzub uses a towable trailer configuration, which is probably intended for relocation between fixed defense sectors rather than integration with maneuver units.

The trailer format likely reflects unresolved constraints linked to electrical generation, cooling equipment, beam stabilization, and optical alignment tolerances. Available imagery indicates that the Trident consists of a stabilized turret carrying optical and laser components positioned above a trailer-mounted support module likely containing power distribution and thermal management systems. Celebra Tech stated that the Tryzub is intended primarily for infrastructure defense missions, protecting logistics hubs, rear-area facilities, energy sites, and urban air defense sectors subjected to recurring drone attacks.

Therefore, this variant of the Trident does not currently follow the same model as the Chinese OW-A50, more suitable for continuous movement alongside armored formations or frontline maneuver operations. Celebra Tech reported that Tryzub currently destroys FPV drones at 800-900 m and reconnaissance UAVs at distances reaching 1,500 m while remaining under testing for Shahed intercepts at ranges approaching 5 km. Existing footage only demonstrates localized heating effects, optical blinding, and short-range drone engagements requiring sustained beam exposure.

During winter testing cycles preceding the May 2026 disclosure, the system reportedly engaged FPV drones in 7-inch, 8-inch, 9-inch, and 13-inch categories, targeting electronics, optics, structural elements, and wing surfaces. The latest version of the Trident now incorporates AI-assisted guidance, automatic target acquisition, automatic tracking, and radar integration to improve beam stability against maneuvering targets. As directed-energy systems require continuous beam placement on a small surface area long enough to produce structural failure, improving dwell-time precision became one of the primary determinants of lethality.

One of the principal unknowns surrounding the Tryzub remains the system’s actual power class and thermal management architecture. Comparative reference points from foreign systems illustrate the technical challenge involved in sustaining hard-kill laser engagements against airborne targets. The AN/SEQ-3 LaWS operates in the 30 kW class, HELIOS exceeds 60 kW, Israel’s Iron Beam is estimated above 100 kW, and South Korea’s Block-I uses roughly 20 kW against small drones at shorter ranges. Existing Western testing indicates that destruction of drones beyond 1-2 km generally requires laser outputs between 30 and 100 kW, depending on atmospheric distortion, beam quality, target composition, and required dwell time.

For now, Ukraine has released no information concerning onboard generators, cooling loops, battery arrays, or thermal dissipation rates associated with Tryzub. Atmospheric conditions such as fog, smoke, rain, dust, and battlefield aerosols could therefore significantly reduce operational effectiveness compared to controlled testing conditions. The strategic rationale behind the Tryzub is closely linked to the economic imbalance created by Russia’s long-range drone campaign against Ukrainian infrastructure beginning in 2022 and intensifying through 2024-2026. Shahed/Geran drones impose disproportionate costs on conventional air defense systems.

Interceptors remain substantially more expensive than the targets they destroy: publicly cited procurement figures place Patriot PAC-3 interceptors between $3 million and $4 million per missile, IRIS-T interceptors near $430,000, and NASAMS/AIM-120 interceptors between $1 million and $1.5 million, while Shahed-inspired drones are generally estimated between $20,000 and $50,000. Directed-energy systems theoretically reduce engagement cost to electricity consumption, fuel usage, maintenance cycles, and component wear rather than expenditure of finite missile inventories.

The Ukrainian laser, therefore, appears intended less as a replacement for missile-based air defense and more as a supplementary layer against low-cost drones operating within short engagement envelopes. Nevertheless, the Tryzub program places Ukraine among a limited group of states publicly fielding or testing operational directed-energy systems alongside Israel, the UK, the U.S., France, South Korea, Germany, Russia, China, Australia, India, Italy, and Türkiye.

Unlike most NATO laser programs developed through extended peacetime qualification cycles, the Tryzub progressed through field experimentation during active wartime conditions with compressed testing timelines and direct operational feedback. Compared with systems such as DragonFire or Iron Beam, the Tryzub currently appears less industrialized, less automated, and more limited in demonstrated range, although its development cycle advanced more rapidly. Celebra Tech indicated that the project, led by 15 people, was financed internally rather than through publicly disclosed procurement contracts, while future scaling will likely depend on access to precision optics, beam-control systems, advanced cooling technologies, and stable electrical generation infrastructure.

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.
Ukraine unveils new Stash air defense system armed with Hellfire missiles during Russian drone attack
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Ukraine has operationally deployed the previously undisclosed Stash short-range air defense system during a massive Russian drone assault involving more than 400 UAVs, according to footage released by Ukraine’s Air Command West on May 1, 2026. The system’s use during a saturation attack highlights Kyiv’s accelerating shift toward low-cost layered defenses designed to preserve high-end Patriot and NASAMS interceptors while sustaining continuous protection of critical infrastructure against large-scale Shahed drone raids.

Stash uses AGM-114 Hellfire missiles mounted on a simple towable launcher equipped with a compact radar, creating a dispersed counter-drone network optimized for rear-area defense rather than frontline maneuver warfare. Its fire-and-forget Longbow Hellfire configuration allows rapid sequential engagements against multiple low-altitude UAVs, reflecting a broader NATO trend toward modular SHORAD systems built around existing missile inventories to counter the growing scale of drone warfare.

Related topic:Netherlands expands U.S. Hellfire missile inventory to over 1,800 units with new AGM-114R2 purchase

Ukraine’s Air Command West disclosed the operational use of the Stash, a trailer-mounted short-range air defense system that uses AGM-114L Hellfire missiles, during a Russian attack involving more than 400 drones. (Picture source: Ukrainian MoD)

On May 1, 2026, Ukraine’s Air Command West revealed the operational deployment of a previously undisclosed short-range air defense system, the Stash, during a Russian aerial attack involving more than 400 drones launched against multiple Ukrainian regions in a single attack cycle. Footage released after the engagement showed the system firing AGM-114 Hellfire missiles from a two-round launcher mounted on a four-wheel trailer carrying an integrated compact radar assembly. Ukrainian forces reported the destruction of 58 drones within the western operational sector alone, indicating sustained engagement activity across rear-area infrastructure zones rather than isolated frontline interception.

The attack reflected the Russian saturation model increasingly employed since 2024, where large numbers of Shahed-136 loitering munitions are launched simultaneously in order to overload radar tracking capacity and force interceptor expenditure. The operational context surrounding the May 1 strike explains why Ukraine is increasingly deploying low-cost distributed intercept systems beneath Patriot, NASAMS, and IRIS-T layers. Shahed drones typically fly below 1,000 meters at speeds near 180 km/h to 200 km/h, conditions that complicate radar discrimination against ground clutter while creating unfavorable cost-exchange ratios for strategic interceptors.

Russian strike packages increasingly combine dozens or hundreds of UAVs with cruise missiles or decoy targets in order to consume expensive air defense inventories before higher-value weapons enter defended sectors. Western Ukraine has become particularly important because it contains railway junctions, electrical infrastructure, fuel depots, logistics corridors linked to NATO supply routes, and airbases located outside the immediate frontline artillery envelope. The appearance of the Stash during this attack strongly indicated that Ukrainian planners are now fielding dedicated counter-drone systems intended specifically for a large volume of low-end aerial threats.

The physical configuration of the Stash reflected a deliberate prioritization of production simplicity, reduced maintenance requirements, and dispersed deployment capacity over armored mobility or battlefield survivability. The launcher consisted of a towable four-wheel trailer carrying two exposed AGM-114 Hellfire missiles mounted on launch rails beneath a compact hemispheric radar assembly. This arrangement eliminated the need for a dedicated armored chassis, tracked suspension, integrated automotive support systems, or complex drivetrains associated with conventional SHORAD vehicles such as Pantsir-S1, Tor-M2, or Stryker M-SHORAD.

Trailerization substantially lowers procurement and lifecycle costs because launchers can be manufactured independently from specialized combat vehicles and towed by existing utility trucks or civilian vehicles. The configuration also supports semi-static deployment around energy facilities, ammunition depots, logistics hubs, and airfields where operational requirements prioritize persistent localized coverage. The Stash concept appears closely connected to the design philosophy of the Tempest counter-UAS system, which was introduced by U.S. contractor V2X in October 2025 as a lightweight mobile SHORAD configuration mounted on a Can-Am Maverick X3 tactical buggy.

The original Tempest architecture integrated two AGM-114L Longbow Hellfire missiles, a Leonardo DRS hemispheric radar, and a Wescam MX-10 electro-optical sensor package optimized for engagement of low-altitude drones, helicopters, and slow aircraft. Ukrainian footage released in January 2026 had already confirmed Tempest systems operating inside the Ukrainian Air Force structure during nighttime Shahed interception missions, although transfers were never formally publicized. The Stash design preserved the Tempest fire control layout and missile architecture while replacing the buggy chassis with a simpler towable launcher, more suitable for infrastructure defense missions.

This modification reduced fuel consumption, maintenance complexity, and automotive procurement requirements while increasing the number of launch nodes that could be produced from the same missile inventory. The AGM-114L Longbow Hellfire, likely used by systems such as the Stash, differs from earlier laser-guided Hellfire variants because it employs an active millimeter-wave radar seeker capable of autonomous post-launch target tracking. Most standard Hellfire missiles require continuous laser designation until impact, creating engagement bottlenecks during large drone attacks involving simultaneous inbound tracks.

The AGM-114L instead operates as a fire-and-forget weapon using inertial guidance combined with a 94 GHz millimeter-wave radar seeker, allowing the launcher to reposition or engage additional targets immediately after firing. The missile possesses a published operational range between 7 km and 11 km, depending on launch altitude and trajectory geometry, with a top speed near Mach 1.3. Radar guidance is particularly effective against Shahed-type drones because such UAVs possess relatively weak thermal signatures compared to conventional aircraft, reducing engagement efficiency for infrared-guided systems such as the FIM-92 Stinger.

The economic rationale behind Hellfire-based SHORAD systems is driven primarily by interceptor availability and strategic missile conservation rather than direct cost parity with drones themselves. Public U.S. procurement data places AGM-114 unit costs between $99,000 and $150,000, depending on variant and production batch, while Shahed-136 drones are generally estimated below $50,000 per unit. However, intercepting such targets with Patriot PAC-3, IRIS-T SLM, or AIM-120-derived missiles creates substantially larger cost disparities while simultaneously consuming inventories intended for cruise missiles, aircraft, and ballistic threats.

Hellfire-based systems, therefore, occupy an intermediate defensive layer positioned between strategic SAM systems and lower-cost gun or electronic warfare solutions. Existing Hellfire inventories also provide immediate operational availability because the missile already possesses mature NATO production infrastructure, logistics chains, and maintenance procedures developed over decades of air-to-ground use. The emergence of the Stash reflects a broader structural shift underway across Western short-range air defense doctrine following the expansion of drone warfare after 2022.

The U.S. Navy integrated AGM-114L missiles into Littoral Combat Ship defensive architecture for counter-UAS missions, while the U.S. Army fielded Longbow Hellfires on Stryker M-SHORAD vehicles before identifying long-term vibration and storage issues linked to prolonged ground carriage. Several NATO countries are now examining modular launcher concepts using existing missile inventories because dedicated SHORAD interceptor production capacity remains insufficient for sustained high-volume drone warfare.

Trailer-mounted systems such as Stash are particularly attractive because they reduce manufacturing complexity, eliminate the need for specialized armored chassis, and allow launchers to disperse across civilian infrastructure networks or rear-area facilities. Within that framework, Stash represents less an isolated wartime improvisation than an indicator of the direction increasingly shaping NATO counter-drone force structure development.

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.
Ukraine to receive 1,500 JDAM-ER guided bombs from US in $373 million sale for precision strikes
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Ukraine is set to receive 1,500 JDAM-ER precision-guided bomb kits under a $373.6 million U.S. Foreign Military Sale approved on May 5, 2026, significantly expanding Kyiv’s ability to strike Russian bridges, depots, headquarters, and logistics corridors far behind the front line. The transfer, announced by the U.S. State Department, reinforces Ukraine’s growing stand-off strike capacity while allowing Soviet-era MiG-29 and Su-27 fighters to continue delivering precision attacks without relying on scarce cruise missile inventories or immediate replacement by Western combat aircraft.

The package includes 1,200 KMU-572 and 332 KMU-556 JDAM-ER guidance kits optimized mainly for 500 lb-class bombs, a configuration better suited to Ukrainian fighter payload limits and repeated operational use. With glide ranges reaching roughly 72 km and accuracy measured within meters under stable GPS conditions, the JDAM-ER has become a key tool in Ukraine’s campaign to disrupt Russian sustainment networks, while also exposing the growing importance of electronic warfare as both sides compete to protect or deny satellite-guided strike systems on the modern battlefield.

Related topic:U.S. Navy Pushes New JDAM LR Guided Bomb Toward Carrier Deployment to Deliver Affordable Long-Range Strike

Standard JDAMs typically achieve ranges of 28 km depending on release altitude and speed, whereas the JDAM-ER can exceed 74 km and, in some profiles, approach 80 km. (Picture source: Boeing)

On May 5, 2026, the U.S. State Department approved a $373.6 million Foreign Military Sale package for Ukraine covering 1,500 Joint Direct Attack Munition – Extended Range (JDAM-ER) guidance kits, a weapon that the Ukrainian Air Force has employed continuously since spring 2023 against Russian bridges, headquarters, depots, and transport corridors. The package includes 1,200 KMU-572 JDAM tail kits and 332 KMU-556 tail kits together with FMU-139 fuze systems, software support, spare parts, transportation services, repair-and-return support, engineering assistance, contractor logistics support, and technical documentation.

Boeing in St. Louis, Missouri, remains the prime contractor, and the notification did not include bomb bodies, indicating that the kits are intended for integration onto existing Mk-80-series inventories already available through previous transfers or Ukrainian stocks. The approval came after more than three years of Ukrainian combat use of JDAM-ER weapons on modified MiG-29 and Su-27 aircraft, making the system one of the principal Western-guided stand-off strike munitions integrated onto those Soviet fighters. A total of 1,532 guidance kits is operationally significant because it supports repeated strike cycles against fixed targets over extended periods without requiring large cruise missile inventories.

The ratio between the 1,200 KMU-572 kits and 332 KMU-556 kits also suggests priority on the lighter 500 lb class configurations associated with GBU-38 and GBU-62 bombs, which Ukrainian aircraft have employed more frequently because of payload flexibility and lower aerodynamic penalties on MiG-29 and Su-27 airframes. The package timing coincides with a marked increase in Ukrainian glide-bomb attacks against Russian logistics infrastructure between 2024 and 2026 in Zaporizhzhia, Kherson, and Kursk sectors, particularly road bridges, ammunition depots, headquarters, and transport nodes supporting Russian maneuver formations.

Official U.S. language maintained that the transfer supports Ukrainian “self-defense and regional security missions” while not altering the regional military balance, reflecting Washington’s continued approach of expanding Ukrainian stand-off strike capacity without formally transferring systems categorized as strategic deep-strike weapons. The Joint Direct Attack Munition (JDAM) is fundamentally a guidance and control kit designed to convert unguided bombs into precision-guided munitions using a combined GPS and inertial navigation architecture.

The baseline configuration uses a tail control assembly, an INS unit, a GPS receiver, and aerodynamic strakes mounted on Mk-80-series bombs. Standard variants include the GBU-31, linked to 2,000 lb Mk-84 or BLU-109 bombs, the GBU-32 associated with 1,000 lb Mk-83 bombs, and the GBU-38 using 500 lb Mk-82 warheads. The JDAM-ER (Extended Range) adds a deployable wing kit originally derived from Australian glide-bomb research programs conducted from the 1970s onward, extending release range from roughly 24 km to 72 km depending on altitude, speed, and release profile.

Under stable GPS reception, the CEP is close to 5 meters, while INS-only navigation after signal disruption degrades accuracy toward 30 meters. Historical procurement data placed standard JDAM tail-kit costs between $21,000 and $36,000, depending on production batch, while the ER wing kits were budgeted at nearly $10,000 per unit, creating a precision strike weapon substantially cheaper than Tomahawk cruise missiles costing well above $1 million per round. Ukraine began integrating the JDAM-ER onto MiG-29s and Su-27s during early 2023, but the process required substantial local modification because these Soviet fighters lacked NATO-standard MIL-STD-1760 digital weapon interfaces and compatible mission-management systems.

Ukrainian engineers then decided to develop custom pylons, interface modules, modified launch rails, and dedicated wiring assemblies capable of transferring GPS alignment and targeting data to the bombs before release. Photographs released during 2023 and 2024 showed elongated forward sections on launch rails believed to contain GPS antennas and interface electronics compensating for the absence of NATO-standard avionics architecture. Several Ukrainian aircraft also lacked the ability to update target coordinates in flight, requiring mission data to be loaded before takeoff.

The adaptation process was built directly on earlier Ukrainian integration work involving AGM-88 HARM anti-radiation missiles carried by MiG-29s and Su-27s from 2022 onward. Operationally, these modifications transformed Soviet-era interceptors, originally optimized for short-range air combat, into aircraft capable of medium-depth precision strikes against bridges, depots, headquarters, and ammunition storage facilities without requiring their immediate replacement by Western tactical fighters. The JDAM-ER entered Ukrainian combat operations during spring 2023 and first appeared in strikes near Bakhmut on April 26, 2023, when Ukrainian aircraft reportedly dropped four 500 lb JDAMs against fortified Russian urban positions used for ammunition storage and command functions.

By 2024 and 2025, Ukrainian MiG-29 and Su-27 aircraft carrying GBU-62 JDAM-ER glide bombs were operating regularly in Zaporizhzhia, Kherson, and Kursk sectors. On August 30, 2024, Ukrainian jets conducted glide-bomb strikes against bridge crossings in Russia’s Kursk region intended to disrupt supply movement supporting Russian border operations. On November 16, 2025, a Ukrainian MiG-29 struck a road bridge near Kamianske in occupied Zaporizhzhia using two GBU-62 bombs, collapsing a crossing that Russian forces had been using to sustain operations west of the former Kakhovka reservoir area.

The repeated targeting of bridges, transport corridors, depots, and headquarters indicates a Ukrainian operational preference for attacking sustainment networks with the JDAM rather than conducting continuous close-air-support missions against frontline formations. In practical terms, JDAM-ER provided Ukrainian aviation with a strike capability comparable in operational reach to HIMARS rocket launchers while delivering heavier warheads and different attack geometries against fixed infrastructure. However, Russian electronic warfare systems became one of the principal operational constraints affecting the JDAM effectiveness, because the U.S. munition depends heavily on uninterrupted satellite navigation during long glide phases.

Systems such as the R-330Zh Zhitel were deployed specifically to interfere with GPS reception in sectors where Ukrainian operations with JDAMs increased. The vulnerability is structural rather than incidental, since GPS signals arriving from orbit are inherently weak and vulnerable to high-power electromagnetic interference. Even encrypted military GPS signals combined with SAASM protection cannot fully eliminate the effect of concentrated jamming during terminal guidance phases. U.S. intelligence assessments circulated during 2023 identified the JDAM as particularly susceptible to Russian jamming compared with several other Western precision-guided systems operating in Ukraine.

In response, the United States accelerated work on Home-on-GPS-Jam guidance concepts and an anti-jamming upgrade to improve the JDAM's survivability under electronic attack conditions. Australia also transferred retired JDAM-ER inventories to Ukraine within military assistance packages announced in 2024. The JDAM itself originated after U.S. Air Force assessments of Operation Desert Storm identified serious limitations in laser-guided bombs operating under adverse weather conditions involving smoke, dust, cloud cover, and battlefield obscurants.

Boeing received the first production contract in 1995, while operational deployment began in 1999 during Operation Allied Force over Yugoslavia, where B-2 bombers used more than 600 JDAMs during long-range strike missions launched from Whiteman Air Force Base in Missouri. The JDAM-ER wing kit evolved from Australian glide-bomb programs managed by the Defence Science and Technology Group and later industrialized through cooperation with Boeing and Ferra Engineering. The broader JDAM family later expanded into Laser JDAM variants for moving targets, Powered JDAM concepts using small turbine engines, Quickstrike naval mine adaptations, and the GBU-75 JDAM-LR tested by the U.S. Navy in April 2026 at ranges close to 200 nautical miles.

By adapting the JDAM-ER onto MiG-29 and Su-27 fighters, Ukraine preserved the operational relevance of these aircraft designed during the late Cold War without waiting for large-scale replacement by Western aircraft such as the F-16, the Gripen, and the Rafale. Russian forces adapted by dispersing logistics infrastructure, increasing point-defense density, relocating depots farther from the front, constructing alternative crossings, and expanding electronic warfare coverage around operational rear areas. Ukrainian strike patterns between 2024 and 2026, however, indicate a consistent effort to degrade Russian sustainment capacity by targeting road corridors, rail infrastructure, bridges, ammunition depots, and command facilities with the help of the JDAM.

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.
Latvia transfers more CVR(T) armored vehicles to Ukraine for rapid combat operations
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Latvia has approved the transfer of additional CVR(T) armored vehicles to Ukraine, reinforcing frontline mobility and reconnaissance capacity as Kyiv adapts to fast-moving combat conditions. The transfer directly supports battlefield requirements by expanding Ukraine’s ability to maneuver, scout, and deploy light armored firepower without delaying operations.

These tracked vehicles provide a mix of reconnaissance, troop transport, command, and fire support roles, allowing Ukrainian units to operate with greater flexibility at the tactical level. Their speed, low weight, and upgraded systems make them well-suited for rapid strikes, screening missions, and dispersed warfare, reflecting a broader shift toward mobility and survivability in modern conflict.

Related topic:Latvia confirms transfer of 42 locally-produced Patria 6x6 armored personnel carriers to Ukraine

By the early 2020s, Latvia operated over 200 CVR(T) vehicles, including modernised and training units, before it started transferring part of its CVR(T) fleet to Ukraine as military aid. in 2024 (Picture source: X/Andris Sprūds)

On April 28, 2026, the Latvian Cabinet approved the transfer of additional Combat Vehicle Reconnaissance Tracked (CVR(T)) armored vehicles to Ukraine, expanding the existing supply line of British-made CVR(T)s already used by Ukrainian forces through earlier donations. The decision was confirmed by Minister of Defence Andris Sprūds, who explicitly linked the transfer to current operational requirements identified by the Ukrainian Armed Forces. Latvian authorities specified that the release of these vehicles will not affect national force readiness or the structure of the Latvian Land Forces, indicating that the equipment is sourced from available reserves or lower-readiness units.

Latvia quantified its military assistance at 0.3% of GDP in 2025 and projected 0.25% in 2026, maintaining a defined annual allocation baseline. The transfer falls within a 2024 bilateral framework agreement that formalizes long-term military and security assistance to Ukraine. The April 28 decision follows a pattern of incremental transfers rather than single high-volume deliveries, with the Latvian government withholding the exact number of CVR(T) vehicles included in this tranche. Statements from Andris Sprūds and Foreign Minister Baiba Braže were released simultaneously across official channels and social media, reflecting unified executive-level signaling.

In parallel to equipment transfers, Latvia continues to train Ukrainian personnel, lead the Drone Coalition initiative, and finance the procurement of domestically produced military equipment for delivery to Ukraine. Financial contributions also extend to multinational funding mechanisms supporting Ukrainian defense procurement. This combined approach integrates equipment transfers with training pipelines and industrial output, reducing reliance on a single category of support and maintaining continuity across multiple assistance vectors. Latvia’s military assistance policy toward Ukraine has been structured since 2024 through a bilateral agreement covering long-term support and security commitments, linking financial contributions to national economic output.

Military aid reached 0.3% of GDP in 2025, equivalent to several hundred million euros, and is projected at 0.25% for 2026, maintaining a predictable funding profile. Assistance includes direct transfers of military equipment (such as the Patria 6x6), procurement contracts with Latvian defense manufacturers, and sustained training programs for Ukrainian personnel. Latvia also contributes to international initiatives and funding pools, distributing financial risk and aligning with broader NATO and EU support mechanisms. The policy framework integrates material, financial, and institutional components, ensuring continuity beyond individual delivery events such as the CVR(T) transfer.

The vehicles being transferred originate from Latvia’s CVR(T) fleet acquired under a September 4, 2014, contract with the United Kingdom for 123 units, with deliveries completed between 2015 and 2020 following refurbishment and modernization. The fleet includes multiple variants such as FV107 Scimitar, FV103 Spartan, FV105 Sultan, FV104 Samaritan, and FV106 Samson, enabling reconnaissance, troop transport, command, medical evacuation, and recovery roles within a single vehicle family. A follow-on agreement signed in 2019 provided for up to 74 additional vehicles, increasing total inventory depth. These acquisitions were part of Latvia’s mechanization program designed to equip a land forces infantry brigade with tracked armored vehicles while maintaining cost efficiency through refurbished systems.

The current transfer is assessed to draw from surplus or second-line vehicles, consistent with official statements that operational capability is not degraded. The CVR(T) family was designed in the 1960s by the United Kingdom for expeditionary operations requiring air portability, low weight, and high mobility. Vehicles measure roughly 4.8 to 5.3 meters in length and about 2.1 to 2.3 meters in width, with a combat weight ranging from 5.5 to 8 tons, increasing to nearly 10 tons with additional armor packages. Construction uses aluminum alloy armor to reduce mass while providing protection against small arms fire and artillery fragments.

Original propulsion was provided by a Jaguar XK 4.2-litre petrol engine derived from the Jaguar E-Type, producing reduced output in military configuration, later replaced in Latvian service by Cummins diesel engines during refurbishment programs. Maximum road speed ranges between 80 and 110 km/h, with an operational range between 450 and 800 km depending on configuration. Low ground pressure, equivalent to that of a dismounted soldier, enables movement across soft terrain without specialized engineering support. Armament differs by CVR(T) variant, with the FV107 Scimitar equipped with a 30 mm L21 Rarden cannon firing at a rate of 80 to 90 rounds per minute, supported by a 7.62 mm coaxial machine gun.

Latvian upgrades include integration of Spike anti-tank guided missiles on more than 30 vehicles, providing an engagement capability up to 4 km and enabling beyond line-of-sight targeting through fiber-optic guidance. The FV103 Spartan carries a crew of three and up to four dismounts or specialized teams such as anti-tank units, while the FV105 Sultan functions as a command vehicle with expanded communications and workspace. The FV104 Samaritan provides medical evacuation capacity for up to four casualties, and the FV106 Samson is configured for recovery operations with winch systems.

This distribution of roles allows a CVR(T)-equipped unit to operate with integrated reconnaissance, command, logistics, and medical capabilities without reliance on external vehicle types. The modernization of Latvia’s CVR(T) fleet also focused on extending service life and adapting legacy systems to current operational requirements without redesigning the base structure. Upgrades included installation of modern communication systems, improved fire control optics, modular mounts for machine guns and auxiliary equipment, and conversion to diesel propulsion for improved fuel efficiency and logistical compatibility.

In operational use, CVR(T) vehicles are more suited for reconnaissance, screening, and mobile fire support missions than for direct assault roles against heavily armored targets. The transmission system redistributes power during turning instead of braking, allowing the vehicle to maintain speed and maneuverability in confined terrain. Their relatively low weight eliminates the need for heavy bridging equipment and simplifies transport by rail, sea, or air. Compared to infantry fighting vehicles and main battle tanks, CVR(T)s impose lower training and maintenance requirements, supporting deployment at platoon or company level within Ukrainian formations.

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.
Ukraine tests new Skif tracked APC to move troops faster and safer than US-made M113s
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Ukraine has begun testing a new tracked armored personnel carrier designed to move infantry faster and survive threats that have heavily damaged legacy vehicles like the M113. The development signals a push to improve battlefield mobility and protection in harsh terrain where tracked platforms remain critical for sustaining operations under fire.

The Skif prototype combines cross-country performance comparable to the M113 with stronger armor, mine resistance, and a remotely operated weapon station that allows crews to fight without exposure. This mix of mobility, survivability, and protected firepower reflects a broader shift toward more resilient, domestically produced platforms built for high-intensity warfare and reduced dependence on foreign supply.

Related topic:Ukrainian forces to soon receive the first batch of Gyurza-02 armored vehicles with AI-driven target recognition

When compared to the M113, the Skif has a stronger armor protection, a higher firepower with a remote weapon station, and an improved resistance to mines and modern battlefield threats, while maintaining similar mobility performances to the M113. (Picture source: UkrArmoTech)

On April 20, 2026, the Ukrainian manufacturer UkrArmoTech began the testing of the Skif tracked armored personnel carrier, its new prototype developed in response to operational requirements identified during combat against Russian forces. The Skif is the company’s first tracked design after years focused on wheeled vehicles like the Gyurza-02 and reflects a shift driven by battlefield conditions where tracked mobility has remained essential. The Ukrainian APC is intended to produce a domestic alternative to the M113, hundreds of which have been supplied to Ukraine since February 2022 for troop transport, logistics, and medical evacuation.

Testing activities include validation of mobility, structural endurance, and performance under maximum load, with a specific attention to drivetrain stress and suspension durability. The trials are designed to assess whether the Skif can match the M113’s cross-country mobility while improving protection and firepower. The development also aligns with Ukraine’s policy of increasing domestic production of armored vehicles to reduce its reliance on foreign supply chains. The operational rationale for the Skif is directly linked to the extensive use of M113 vehicles by Ukrainian forces and the conditions in which they have been employed.

The American M113 has remained in service since 1960 due to its mechanical simplicity, ease of repair, and ability to operate across rough terrain, including mud-heavy environments common in eastern and southern Ukraine. It can transport up to 7 to 8 fully equipped soldiers and has been adapted for multiple roles, including casualty evacuation with space for stretchers. However, losses have been significant, with hundreds of units confirmed destroyed or damaged, highlighting vulnerabilities in armor protection and survivability against mines, artillery fragments, and heavy machine gun fire. These factors led the Ukrainian Ministry of Defense to define requirements for a replacement vehicle that would maintain mobility while exceeding the M113 in protection and onboard firepower.

UkrArmoTech's Skif is structured around these requirements, using the M113 as a baseline for performance comparison rather than a direct template. UkrArmoTech’s transition into tracked vehicle development required organizational changes, including the establishment of a dedicated design bureau focused on tracked systems and the cooperation with other Ukrainian industrial entities. Prior to this program, the company’s portfolio consisted primarily of wheeled armored vehicles such as the Gyurza, Tisa, and Desna models, which are used for patrol, transport, and urban operations. The Skif development process has incorporated direct input from Ukrainian military personnel, including feedbacks on M113 performance under combat conditions, particularly regarding maintenance cycles, mechanical reliability, and survivability limitations.

Therefore, the Skif's design approach prioritizes retaining the M113's mechanical simplicity to ensure field repairability while addressing the deficiencies identified during combat use. This includes maintaining accessible components, minimizing system complexity, and ensuring compatibility with existing maintenance infrastructure. The M113’s configuration has influenced the general layout, including front-mounted crew positions and rear troop compartment design. The Skif’s configuration follows a conventional tracked APC layout, with a crew of three positioned in the front section behind the engine and transmission compartment. The crew consists of a driver, commander, and weapons operator, with controls and observation systems concentrated in the forward hull.

The rear compartment is designed to carry up to eight infantry personnel equipped with body armor, weapons, and supplies, consistent with Ukrainian mechanized infantry requirements. Access is provided through a hydraulically operated rear ramp, allowing rapid dismount under combat conditions. The internal layout is intended to support extended operations, including transport of equipment and wounded personnel if required. The Skif is designed to operate across a range of environments, including paved roads, off-road terrain, and seasonal conditions such as mud and snow. Like the Gyurza, the chassis is modular, allowing adaptation into variants such as command vehicles, reconnaissance platforms, medical evacuation units, and potentially mortar carriers or anti-tank configurations.

Mobility performance is a central parameter in the Skif’s design, reflecting the operational importance of maneuverability in Ukrainian terrain. The Skif has an estimated combat weight of up to 15 tons in its aluminum configuration and is powered by a 360-horsepower diesel engine, providing a power-to-weight ratio comparable to legacy tracked APCs. The drivetrain and engine mounting system are designed with standardized interfaces, allowing integration of alternative powerplants if required for different configurations or export variants. Tracked propulsion is selected to ensure mobility in soft soil, mud, and thaw conditions where wheeled vehicles frequently lose traction or become immobilized.

Testing includes maximum load operation, endurance runs, and dynamic stress evaluation of suspension and track components to determine long-term reliability. These tests are intended to replicate the M113's sustained operational use rather than short-duration trials, with a focus on identifying failure points under realistic conditions. The protection levels of the Skif represent a significant change compared to the M113, which uses aluminum armor with limited resistance to modern threats. The Skif is designed to meet STANAG 4569 Level 4 protection in the frontal arc, providing a resistance to 14.5 mm armor-piercing rounds and nearby artillery detonation effects. Side and rear protection is rated at Level 3 to address vulnerabilities seen in M113 deployments.

To respond to the extensive mine warfare in Ukraine, mine protection is specified at Levels 3a and 3b, enabling the vehicle to withstand explosions equivalent to approximately 6 kilograms of TNT under the hull or track. The Skif prototype uses an aluminum hull, marking the first application of this material in a Ukrainian armored vehicle of this category, although a steel variant is under consideration due to supply constraints and improved ballistic resistance. The choice between aluminum and steel hulls will certainly affect overall weight, mobility, and repair requirements. Additional protective measures may include structural reinforcement of the hull floor and integration of blast mitigation features.

The Skif is equipped with a remotely operated weapon station mounted on the roof, replacing manually operated machine gun mounts typical of earlier APC designs. The primary armament options include either a 12.7 mm or 14.5 mm heavy machine gun, supported by a coaxial 7.62 mm machine gun for engagement of lighter targets and smoke grenade launchers for concealment. This configuration allows the crew to operate the weapon system from within the protected hull, reducing exposure to enemy fire. The vehicle integrates modern Ukrainian-produced communication systems for command and control, as well as navigation equipment and situational awareness tools such as external cameras and sensors.

Electronic warfare capabilities are included to counter radio-controlled threats and unmanned aerial systems, which have become a significant factor in the conflict. Like the M113, the onboard systems are designed with modularity, allowing different configurations depending on mission requirements or customer specifications. From an industrial perspective, the Skif is intended to reduce reliance on foreign-supplied armored vehicles while acknowledging current limitations in domestic production capacity. At the initial stage, up to 60% of the vehicle’s components are expected to be imported, including the engine, transmission, suspension elements, and tracks, reflecting the complexity of tracked vehicle manufacturing.

The Ukrainian industry has already localized maintenance and repair of M113 vehicles, including production of spare parts, which provides a foundation for further localization of Skif components. The long-term objective is to increase the proportion of domestically produced components to improve supply chain resilience and reduce costs. The Skif program involves cooperation with multiple Ukrainian enterprises, leveraging existing production facilities, although output is constrained by budgetary limitations and availability of funding. This reflects a broader trend in Ukraine’s defense sector, where production capacity often exceeds procurement levels due to financial constraints.

The Skif’s development also reflects doctrinal considerations regarding the role of tracked armored vehicles in Ukrainian military operations. Combat experience has shown that tracked vehicles maintain mobility in conditions where wheeled vehicles are limited, particularly in mud and soft soil environments common during seasonal changes. Tracks also provide greater resistance to damage from mines and artillery fragments compared to rubber tires, which can be disabled more easily. Ukrainian forces continue to rely on vehicles such as the M113 and the Soviet-era MT-LB for these reasons, despite their age and limitations. The Skif is intended to retain these operational advantages while addressing deficiencies in protection and firepower identified during the conflict. The program also includes consideration of export opportunities, with interest from foreign customers linked to the vehicle’s development based on combat experience and its potential cost advantages compared to foreign alternatives.

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.
Belgium transfers 15 Gepard anti-aircraft guns to Ukraine in new €1 Billion aid plan
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Belgium will deliver 15 Gepard self-propelled anti-aircraft guns to Ukraine, strengthening its ability to counter drones and low-altitude threats in high-volume attack scenarios. The transfer, part of a new €1 billion aid, reinforces the country's short-range air defense capacity where missile systems are costly or insufficient, directly improving battlefield resilience and protection of critical infrastructure.

The Gepard combines radar-guided targeting with twin 35 mm autocannons, enabling sustained, rapid-fire engagements against drones and cruise missiles at short range. Its return to active use highlights a broader shift toward layered air defense, where gun-based systems complement advanced missiles to provide cost-effective, continuous protection in modern warfare.

Read also:How the 60-year-old German-made Gepard anti-aircraft gun keeps frustrating Russia’s aerial warfare in Ukraine

The Gepard integrates a fully automated fire control system, which automatically determines the correct lead angle and gun alignment, allowing crews to engage targets quickly and accurately without manual calculations. (Picture source: Ukrainian MoD)

As reported by L'Écho on April 22, 2026, Belgium confirmed it will reacquire 15 Gepard self-propelled anti-aircraft guns (SPAAGs) from OIP Land Systems and transfer them to Ukraine as part of a €1 billion military aid package approved in early April 2026. The anti-aircraft gun vehicles originate from Belgian Army inventories retired in the early 2000s, sold to Sabiex, and later incorporated into OIP Land Systems following its acquisition. These Gepards were manufactured in the 1970s by a German consortium and remained in storage for roughly 20 years before the current decision.

The Belgian state will purchase the systems from private inventory, indicating a budgetary transaction rather than a direct military transfer. No official figures have been released for acquisition cost, refurbishment expenditure, or delivery schedule. Refurbishment is to be conducted in Belgium prior to transfer to Ukraine, but the timeline has not been specified. The procurement structure was validated by the Minister of Defence Theo Francken, with a preference for reacquiring domestically held assets rather than sourcing from foreign inventories, as Germany did.

This approach reduces dependency on external suppliers and avoids delays associated with international procurement channels. The Gepard purchase is formally part of the April 2026 €1 billion aid envelope, but no detailed allocation has been made public for the Gepard component. There has been no parliamentary disclosure of unit price, refurbishment cost per vehicle, or delivery sequencing. The original operators of the Gepard included Germany, the Netherlands, and Belgium, with later exports to Romania, Brazil, and Jordan in limited quantities. The SPAAG was phased out across NATO between the 2000s and 2010s as missile-based air defense systems replaced gun-based systems.

The current decision reflects a partial reversal driven by operational demand in Ukraine, but also indicates that these 60-year-old systems remain relevant to counter drones. Belgium originally received 55 Gepard systems between 1977 and 1980, all of which were gradually retired after 1994 due to budget constraints after the Cold War. These units were sold to Sabiex, a private firm specializing in surplus military equipment, which later became part of OIP’s Land Systems division. Today, around 38 Gepards remain in OIP inventory, which are stored alongside other armored vehicles in facilities near Tournai, Belgium.

The Gepards were not maintained in an active service condition during this period, implying the need for significant refurbishment before reuse, as the storage period of about two decades introduces uncertainty regarding the current condition of mechanical and electronic components. This acquisition highlights a model that has gone largely unnoticed, where private companies retain decommissioned military assets as long-term inventory for potential resale. The current reacquisition effectively converts these stored assets into active military equipment, but also highlights the absence of a standing reserve of such systems within active Belgian military structures.

OIP has operated as a subsidiary of Elbit Systems since 2003 and is structured around three main operational branches: OIP Sensor Systems, OIP Space Instruments, and OIP Land Systems, with the latter managing armored vehicle inventories. The land systems division, derived from Sabiex, holds an estimated stock of about 500 vehicles (one of the largest private arsenals in Europe), including Leopard 1 tanks, M113 carriers, and Gepard systems. Its business model is based on acquiring surplus equipment at low cost, storing it for extended periods, and refurbishing it for resale when demand emerges. In this transaction, OIP acts as the supplier, while the Belgian government is the buyer and intermediary before transfer to Ukraine.

As the company does not manufacture Gepard systems and does not produce key subsystems such as radar components, its role is limited to storage, mechanical refurbishment, and logistical preparation. This places OIP in a position as a broker and reactivation provider, as these inventories can be mobilized under government programs. The refurbishment process required for the Gepard systems involves a reactivation after approximately 20 years of storage, with expected work including engine overhaul, drivetrain servicing, and validation of fire control systems. A critical issue concerns the radar subsystem, which includes both search and tracking radars and depends on components not produced by OIP (furthermore, Belgium operated two main variants of the Gepard: the standard German configuration named B2, and a laser-enhanced version named B2LV).

Spare parts and technical support for these systems are likely sourced from German industry, creating a dependency that may affect timelines. There has been no confirmation of upgrades such as digital fire control integration or sensor modernization. The condition of radar electronics after long-term storage is a key variable in determining operational readiness. Comparable refurbishment programs for Leopard 1 tanks have taken several months per batch, suggesting similar durations for Gepard systems. The Gepard anti-aircraft gun is built on the Leopard 1 tank chassis and optimized for short-range air defense with two 35 mm Oerlikon KDA autocannons.

Each gun fires about 550 rounds per minute, giving a combined rate of about 1,100 rounds per minute, with an effective engagement range of about 4 km. The Gepard also uses an S-band search radar with a detection range of about 15 km and a Ku-band tracking radar for fire control. Mobility is provided by an MB 838 CaM 500 diesel engine producing about 819 hp, allowing a maximum speed of 65 km/h and enabling repositioning between defensive positions. The Gepard was originally designed to counter Soviet low-altitude aircraft and attack helicopters such as the Mil Mi-24 Hind, but is now used against drones and cruise missiles.

Its radar allows engagement of small and fast-moving targets, including loitering munitions, while the combination of radar guidance and sustained fire provides an alternative to missile-based interception. This configuration is suited for high-frequency, low-cost engagement scenarios, frequently encountered in Ukraine. In Ukraine, the Gepard has been deployed since 2022 following initial deliveries of 52 units from Germany, followed by additional units sourced from Qatar and Jordan. Germany now considers a joint production of the Gepard with Ukraine, as the country became the largest operator of the system in active combat conditions.

The Gepard is used primarily for point defense of infrastructure such as energy facilities and urban areas, focusing on threats including Shahed-type drones and low-flying cruise missiles. Engagement patterns include sequential targeting of multiple drones, enabled by radar tracking and a high rate of fire. Ukrainian operators report a lower cost per interception compared to missile systems, particularly in high-volume attack scenarios, and this cost factor influences deployment decisions and resource allocation. Continued use depends on the availability of 35 mm ammunition and the maintenance of radar systems, as supply constraints have previously required adjustments in production sources.

The transfer of 15 additional units from Belgium represents a limited increase in Ukraine’s short-range air defense capacity, adding to an existing inventory already deployed in operational roles. These systems operate below higher-tier defenses such as the IRIS-T SLS and complement longer-range systems like the Patriot by addressing low-altitude threats. For now, the Gepard does not have a direct replacement, but systems such as the Leopard 2 Skyranger 35 and ASCV Skyranger 30 might represent a transition toward more integrated air defense combining guns, missiles, and modern sensors. Even if current procurement trends indicate a global move toward networked systems, the Belgian decision illustrates how self-propelled anti-aircraft guns such as the Gepard continue to fill key capability gaps under current operational conditions.

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.
Ukrainian F-16 fighter jet transferred by Netherlands spotted departing Belgian airport
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A Ukrainian-operated F-16 has been spotted departing a Belgian airport on April 16, 2026, nearly a year after delivery, underscoring that Western-supplied fighters remain actively managed across NATO territory rather than permanently based in Ukraine. This approach enhances survivability, sustainment, and readiness by reducing exposure to Russian strikes while keeping aircraft mission-capable.

The sighted jet, the former Dutch F-16AM 86-0062, reflects a distributed support model where Ukrainian F-16s cycle through hubs like Belgium for maintenance, upgrades, and pilot training before forward deployment. This arrangement strengthens long-term combat effectiveness by integrating logistics, training, and operational dispersal into a single framework aligned with modern coalition warfare.

Related topic:Ukraine's new F-16s receive secret US electronic warfare systems to counter Russian threats

This specific F-16 entered the Mid-Life Update (MLU) program in June 1997 and returned to service in January 1998 as an F-16AM Block 20, incorporating the Modular Mission Computer, upgraded AN/APG-66(V)2 radar processor, and expanded weapon interfaces.(Picture source: Instagram/_belgian_spotter_ via X/ capt. Wild Bill Kelso)

On April 16, 2026, capt. Wild Bill Kelso shared on X an Instagram video published by _belgian_spotter_showed a Ukrainian F-16 fighter jet departing a Belgian airport, which was identified as former Royal Netherlands Air Force F-16AM J-062, serial 86-0062, confirming the continued movement of transferred Dutch aircraft within Europe after the Netherlands completed delivery of 24 units to Ukraine on May 26, 2025. The fighter’s presence in Belgium is not unusual, as the country serves as a key staging hub where F-16s transferred to Ukraine are still undergoing maintenance, upgrades, and integration work before deployment, while also supporting pilot and ground crew training cycles.

In parallel, some jets are intentionally kept or rotated through NATO countries for operational dispersal, ensuring survivability and continuous availability. This movement demonstrates that delivery completion does not correspond to final basing, even eleven months after. The presence of a Ukrainian-operated F-16 at a Belgian airbase in April 2026, such as the former Royal Netherlands Air Force F-16AM J-062 (serial 86-0062), is not an anomaly but rather a reflection of how the multinational transfer process has been structured in practice. Although the Netherlands completed the formal transfer of 24 aircraft to Ukraine by May 2025, these aircraft were not all flown directly into Ukrainian territory.

Instead, there is strong evidence that Belgium plays a central role in deep maintenance and reactivation work on donated F-16s: for instance, Norwegian-donated F-16s remained in Belgium for over a year for repairs, some even arriving disassembled and missing parts. Belgium is also part of the F-16 training ecosystem for Ukraine: F-16s assigned to Ukraine may be used in Belgium for pilot qualification flights, instructor training, or tactical familiarization before being deployed closer to the front. Thirdly, some Ukrainian F-16s are intentionally kept or rotated through NATO countries for operational dispersal, making Belgium a logical location for some of these jets, including the J-062.

Airframe 86-0062, construction number L-261, was produced by Fokker and delivered to the Royal Netherlands Air Force on March 28, 1989, as an F-16A Block 15AC OCU, a variant part of the late production batches with structural reinforcement and compatibility with the F100-PW-220 engine. The fighter then entered the Mid-Life Update (MLU) program in June 1997 and returned to service in January 1998 as an F-16AM Block 20, incorporating the Modular Mission Computer, upgraded AN/APG-66(V)2 radar processor, and expanded weapon interfaces. The MLU configuration introduced compatibility with AIM-120 AMRAAM, AGM-65 Maverick, and laser-guided bomb families while retaining the original aerodynamic structure.

The APX-113 advanced identification system with four forward fuselage antennas was also added as part of the upgrade. The engine remained the Pratt & Whitney F100-PW-220 with digital control interface. The aircraft is currently listed as active under Ukrainian Air Force designation PS ZSU 86-0062, indicating operational assignment rather than reserve status. Dutch operational records show that between March 1989 and October 1994, this specific F-16 rotated through 315, 322, 311, and 314 squadrons, reflecting standard distribution across Dutch F-16 units. After the MLU conversion, it was deployed in March 1999 to Amendola Air Base in Italy under NATO Operation Allied Force, where Dutch F-16s conducted air defense and strike missions over the Balkans.

On October 13, 2000, the F-16 86-0062 experienced a bird strike and executed an emergency landing at NAS Valkenburg without pilot ejection; the airframe was repaired and returned to flight status. From January 2008, it served with 313 Squadron and deployed in July 2011 to Libya under Operation Odyssey Dawn. Between September 2012 and October 2013, it operated from Afghanistan in support of ISAF missions. These deployments indicate sustained expeditionary use over a period exceeding ten years following MLU upgrade. The aircraft remained active through February 2014 before later changes in status. In March 2016, the aircraft was withdrawn from active service and stored at Volkel Air Base, where it was designated for use as a spare parts source for the remaining Dutch F-16 fleet.

This status continued until November 2020, when it was reactivated and returned to operational service with 313 Squadron, followed by reassignment to 312 Squadron on December 18, 2020. The J-062 participated in training missions, including a Weapons Instructor Course sortie on October 7, 2021, indicating full operational capability after reactivation. In September 2024, it was again placed into storage at Volkel as part of the phased retirement of Dutch F-16s linked to F-35 introduction. By April 2025, the aircraft was redesignated under the Ukrainian Air Force inventory, marking its formal transfer. This sequence shows two complete cycles of storage and reactivation over a nine-year period.

It also indicates that F-16s previously used for parts can be restored to flight condition when required. The Netherlands formally committed 24 F-16s to Ukraine, with deliveries completed on May 26, 2025, and the final jet departing Volkel Air Base through Belgium, indicating a structured transfer corridor within NATO airspace. The observation of J-062 in Belgium in April 2026 indicates that aircraft movements continued after delivery completion, suggesting that integration into Ukrainian basing infrastructure is potentially staggered. The use of Belgian airbases implies roles including refurbishment, avionics updates, pilot conversion, or maintenance staging prior to operational deployment.

This pattern indicates that not all Dutch F-16s were transferred directly into Ukrainian territory upon delivery. It also supports a distributed logistics model in which fighters can be maintained or operated from multiple European locations. J-062 likely belongs to a later transfer group or has been repositioned for maintenance or training purposes, to reduce the operational risk by dispersing assets geographically. The J-062’s systems are centered on the AN/APG-66(V)2 radar, which includes a digital signal processor enabling track-while-scan for up to ten targets and engagement sequencing for multiple intercepts.

Weapons integration includes AIM-9 Sidewinder variants for short-range engagement and AIM-120 AMRAAM for beyond-visual-range interception, with six simultaneous guidance channels supported in later MLU configurations. Air-to-ground capability includes Mk-82 and Mk-84 unguided bombs, GBU-10, GBU-12, and GBU-24 laser-guided bombs, and AGM-65 Maverick missiles for tactical strike roles. The Modular Mission Computer replaces three legacy systems and reduces volume and power consumption while enabling software-driven upgrades. Link 16 integration is available in later software tapes, enabling data exchange with allied aircraft and ground systems. The APX-113 IFF system provides identification capability at ranges up to 100 nautical miles.

Structural reinforcement under the MLU program extended its service life by about 5,000 flight hours beyond the original limits of 8,000 hours. Performance remains unchanged with a maximum speed of Mach 2.0 and a service ceiling of 55,000 feet. Within the Ukrainian service, the F-16's primary missions include air defense interception using AIM-120 missiles against cruise missiles, drones, and tactical aircraft, with secondary capability for precision strike depending on integration of guided munitions. Limitations include the absence of an AESA radar, reducing detection range, and resistance to electronic countermeasures compared to newer systems. Survivability is constrained in environments with dense layered surface-to-air missile systems.

Airframe fatigue remains a factor despite structural upgrades, given the aircraft’s 1989 production date and cumulative usage. Its contribution to the Ukrainian force structure is quantitative, increasing sortie generation rather than introducing new capability categories. Sustained operations depend on maintenance infrastructure, spare parts availability, and trained personnel. These requirements extend beyond the aircraft itself and involve external support networks, such as in Belgium. The J-062 is part of a broader multinational transfer program exceeding 70 F-16s, including 24 from the Netherlands, about 19 from Denmark, about 6 from Norway, and up to 30 planned from Belgium, with deliveries extending toward 2028.

Training for Ukrainian pilots and ground crews is conducted at the European F-16 Training Centre in Romania, which supports the transition from Soviet-era aircraft types. The Netherlands has allocated more than €150 million for the procurement of compatible munitions, including air-to-ground weapons for operational use. Deliveries began in mid to late 2024, expanded through 2025, and continue into 2026 through redistribution and integration phases. The staggered timeline reflects dependencies on pilot training throughput, maintenance capacity, and logistical coordination. The continued movement of aircraft such as J-062 demonstrates that integration remains active beyond initial delivery milestones. The program operates as a multi-year effort with ongoing adjustments to basing and support structures.

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.
Netherlands transfers second Alkmaar-class minehunter Henichesk to Ukraine for Black Sea mine clearance
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The Netherlands is strengthening Ukraine’s ability to secure its coastline and critical sea lanes by transferring an Alkmaar-class mine countermeasure vessel after fully training its crew. Announced on April 16, 2026, by Ukrainian President Volodymyr Zelensky, the move directly enhances Ukraine’s capacity to detect and clear naval mines, a key requirement for protecting shipping routes, enabling amphibious operations, and sustaining economic lifelines in contested waters.

The Alkmaar-class vessel brings specialized mine-hunting sensors and neutralization systems designed to operate in high-risk littoral environments where mines threaten both military and civilian traffic. Its addition to Ukraine’s growing fleet reflects a broader push toward restoring maritime freedom of movement and building resilient naval capabilities focused on survivability, precision, and post-conflict recovery of sea access.

Related topic: Belgium donates last four Tripartite-class minehunters to Bulgaria to secure Black Sea naval routes

The Henichesk, hull number M314, is the former HNLMS Makkum (M857), a Royal Netherlands Navy Alkmaar-class minehunter that has undergone decommissioning, refit, and crew training prior to its delivery. (Picture source: Dutch MoD)

On April 16, 2026, Ukrainian President Volodymyr Zelenskyy confirmed that the Netherlands would transfer an Alkmaar-class minehunter to Ukraine, continuing a maritime assistance first announced in March 2023. The vessel, now named Henichesk (hull number M 314), is the former HNLMS Makkum (M857), laid down on 28 February 1983, launched in 1985, and commissioned on 13 May 1985. It remained in service until November 25, 2024, when it was decommissioned after nearly forty years of operations that included NATO exercises such as BALTOPS.

The ship underwent maintenance and reconfiguration prior to transfer, with part of its equipment replaced due to prior removal during decommissioning. Ukrainian crews were trained in the Netherlands over a period of roughly twelve to fifteen weeks, including simulator training and sea phases conducted from Zeebrugge and other locations. Training included navigation, mine warfare procedures, firefighting, and damage control, with support from Dutch, Belgian, and German personnel. The vessel, expected to enter Ukrainian service as early as June 2026 and take part in the Sea Breeze exercise in 2027, is the second Alkmaar class ship transferred by the Netherlands after Vlaardingen, renamed Melitopol, after their withdrawal from Dutch service.

The Royal Netherlands Navy is replacing the Alkmaar-class with the Vlissingen-class, with deliveries scheduled between 2025 and 2030, leading to the phased decommissioning of legacy ships such as Makkum. After decommissioning, the vessel required refurbishment, including reinstallation of removed onboard systems and basic equipment, as some components had been redistributed within the Dutch fleet. Ukrainian personnel began training before the minehunter was fully transferred, initially using sister ships such as Vlaardingen and later transitioning to operational sea training. The training pipeline also included English-speaking instruction for crew members to ensure interoperability with NATO procedures.

Coordination involved multiple entities, including naval training centers, maintenance teams, and logistics units responsible for preparing the ship for transfer. The formal handover took place in 2025 following completion of these stages to ensure that the receiving crew could operate the vessel immediately upon commissioning under Ukrainian command. The Henichesk retains the original configuration of the Alkmaar-class, a Tripartite minehunter design developed jointly by the Netherlands, Belgium, and France in the 1970s. The vessel has a full load displacement between 543 and 588 tons, a length of 51.5 meters, a beam of 8.9 meters, and a draft between 2.6 and 3.8 meters depending on load.

Propulsion is provided by a Werkspoor A RUB 215 V12 diesel engine producing between 1,370 and 1,860 kilowatts, driving two propellers and supported by bow thrusters for maneuvering. Maximum speed is 15 knots, with an operational range of approximately 3,000 nautical miles at 12 knots. The crew consists of approximately 44 personnel, including specialists for mine warfare operations. The hull is constructed from fiberglass-reinforced polyester to minimize magnetic signature and reduce the risk of triggering magnetic mines. Armament is limited to a single 20 millimeter gun or heavy machine guns. The mine countermeasure systems onboard the Henichesk are centered on detection and neutralization rather than sweeping.

The primary sensor is the DUBM 21B sonar, capable of detecting and classifying objects at distances approaching one kilometer and at depths up to approximately 80 meters. The vessel carries two PAP 104 remotely operated vehicles, which are wire-guided and equipped with cameras to visually confirm targets. These vehicles can deliver explosive charges to destroy mines at a safe distance from the ship. Navigation is supported by a Racal Decca 1229 radar system, while onboard plotting systems assist in tracking and classifying contacts. In addition to ROV operations, divers can be deployed to place charges manually when required. The operational method involves systematic scanning of the seabed, identification of individual mines, and controlled neutralization.

This approach is slower than minesweeping but provides higher accuracy in complex environments with mixed or legacy minefields. The Ukrainian need for mine countermeasure vessels is driven by the scale and distribution of naval mines in the Black Sea since February 2022. Both Russian and Ukrainian forces have deployed mines in coastal and offshore areas, including moored contact mines and drifting mines that have detached from their anchors. Concentrations are highest in the northwestern Black Sea, particularly near Odesa and along the main shipping corridors used for grain exports. Mines have been detected in the territorial waters of Romania, Bulgaria, and Turkey, indicating that drift has extended beyond initial deployment zones.

The presence of mines has led to repeated disruptions of maritime traffic and increased insurance and security costs for commercial shipping. The total number of mines deployed is not publicly confirmed, but estimates place the figure in the hundreds or potentially thousands. Clearance operations are expected to take years due to the density of mines and the lack of precise records of their locations. Despite their relevance, vessels such as the Henichesk have operational limitations that affect their deployment. The ship lacks anti-surface and air defense capabilities and cannot operate independently in contested environments without protection from other naval or air assets.

Its survivability is based on reduced magnetic and acoustic signatures rather than armor or active defense systems. Operations are conducted at low speed and require stable conditions, which limit flexibility during ongoing hostilities. The minehunter is therefore more suited to post-conflict clearance or operations in secured areas. The effectiveness of the vessel is measured in the area cleared of mines, a specific contribution to ensure safe navigation in the Black Sea. The previous Henichesk (M360), for instance, was a small Yevgenya-class minesweeper of the Ukrainian Navy that was captured by Russian forces during the 2014 annexation of Crimea, returned to Ukraine, and then sunk by a Russian missile strike in the Black Sea in June 2022.

The integration of Henichesk into Ukrainian naval operations is further constrained by legal restrictions governing access to the Black Sea. Under the Montreux Convention, the transit of warships through the Turkish Straits is limited during wartime, preventing newly transferred vessels from entering the Black Sea directly. As a result, several mine countermeasure vessels provided to Ukraine are currently based outside the country, including in the United Kingdom at ports such as Portsmouth. These vessels are being used for continued crew training, certification, and operational preparation while awaiting changes in access conditions.

This situation creates a delay between acquisition and operational deployment in the intended theater. It also limits the immediate contribution of these platforms to mine clearance operations in Ukrainian waters. Henichesk is part of a broader multinational effort to establish a Ukrainian mine countermeasure capability using transferred legacy platforms. The Netherlands has committed two Alkmaar class vessels, including Vlaardingen renamed Melitopol, while Belgium has transferred at least one mine countermeasure vessel and the United Kingdom has provided Sandown class ships such as former HMS Shoreham and HMS Grimsby.

The resulting fleet is expected to include at least five vessels equipped with NATO-compatible systems and supported by training, maintenance, and logistics programs. These ships were originally built between 1979 and 1989 and are approaching the end of their service lives, which increases maintenance requirements and limits long-term sustainability. Their transfer coincides with their replacement in donor navies by newer systems such as the Vlissingen class. The approach prioritizes rapid capability generation using available platforms rather than new construction. This allows Ukraine to build a mine countermeasure capability within a shorter timeframe despite structural constraints.

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.
France's Alta Ares deploys X Wing and Black Bird interceptors to counter Shahed drone attacks in Ukraine
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French company Alta Ares has deployed its X-Wing and Black Bird interceptor drones in Ukraine to counter Russian Shahed loitering munitions, demonstrating an AI-powered low-cost air defense capability against mass drone attacks.

On April 13, 2026, CEO Hadrien Canter confirmed that both interceptor models are actively engaged in Ukraine under electronic warfare and adverse weather conditions, targeting high-volume drone threats. Their operational deployment addresses a critical imbalance in air defense economics, reinforcing battlefield resilience by reducing reliance on high-cost missile interceptors while maintaining engagement capacity against distributed aerial threats.

Related topic:Belgian company ALX Systems to deploy 50 autonomous kamikaze drones in Ukraine against Russian forces

In a saturation scenario, slower Shahed drones can be assigned to X-Wing drones (in the foreground), while faster or maneuvering targets are engaged by Black Bird units, optimizing cost per interception across the engagement spectrum. (Picture source: Alta Ares)

On April 13, 2026, the CEO of the French company Alta Ares, Hadrien Canter, confirmed that its two interceptor drones, the X-Wing and the Black Bird, have been employed in Ukraine to destroy Russian Shahed drones. These interceptions, conducted under combat conditions that include electronic warfare interference and degraded weather, take place in an operational environment where Russian forces sustain a production rate exceeding 5,000 drones per month, each with an estimated unit cost between $20,000 and $50,000, enabling repeated saturation attacks.

The cost imbalance between these drones and conventional interceptors remains central, as surface-to-air missiles typically cost close to $1M per shot, creating a structural disadvantage for Ukraine when facing such attacks. This imbalance forces prioritization decisions within air defense networks, especially when simultaneous threats exceed available interceptor capacity. Therefore, more and more interceptor drones are being introduced to reduce the marginal cost per engagement while maintaining coverage against distributed threats. The Russian concept of operations (or ConOps) relies on the large-scale deployment of low-cost attack drones designed to saturate Ukraine's air defense systems.

A wave of dozens of Shahed drones forces defenders to either commit high-cost interceptors or accept enemy strikes, which translates into infrastructure damage or operational disruption. The economic effect is cumulative, as repeated engagements deplete missile inventories that are slower and more expensive to replenish than the attacking systems. As shown in Ukraine and in the Gulf, a single engagement at a cost ratio exceeding 20:1, repeated across hundreds of targets, creates sustained financial and logistical pressure. This model also exposes the defender's coverage limitations, as air defense systems are optimized for higher-value targets and may not scale efficiently against low-cost swarms.

The requirement that follows is for an interceptor with a cost profile closer to the incoming threat, combined with the ability to be produced and deployed in comparable volumes. Alta Ares was founded in 2024 with an initial focus on Intelligence, Surveillance, and Reconnaissance (ISR) software, including video analysis, object detection, and target recognition algorithms developed in cooperation with Ukrainian operators. The transition to hardware, including interceptor drones, was driven by the need to close the loop between detection and engagement within a single system, as this absence created delays and operational gaps. The company now conducts engineering and assembly in France while maintaining continuous operational testing in Ukraine, allowing direct iteration based on combat use.

This model compresses development cycles, as software updates can be implemented after each deployment cycle rather than through extended testing phases. The supply chain is centered in Europe, with at least one critical component sourced from a Swiss supplier, introducing a dependency that may affect production scaling. The system has undergone validation processes linked to NATO frameworks, indicating compatibility with allied operational standards and communication architectures. For Alta Ares, the interception process integrates multiple functions into a single chain, beginning with detection through radar and sensor inputs, followed by AI-based identification that classifies targets and filters out non-relevant objects.

Their Pixel Lock software performs continuous tracking, maintaining lock on a target despite movement, interference, or partial signal degradation, and calculates the interception trajectory in real time. The interceptor is then guided toward the target during the terminal phase, where convergence occurs at close range. A human operator remains responsible for authorizing the final engagement through a ground control station, ensuring compliance with operational constraints and reducing the risk of unintended engagements. This human-in-the-loop model is maintained despite increasing automation, as engagement windows remain short and require rapid decision-making.

Nevertheless, this AI-powered architecture reduces the operator workload by automating detection and tracking, which are the most time-consuming and error-prone phases during operations. Alta Ares has sent two interceptor models to Ukraine. The X-Wing interceptor is designed for short-range engagements, with a mass of 3.5 kg excluding the warhead and an electric brushless motor rated at 3115 1250kv, which defines the geometry and rotational behavior. It reaches a maximum speed of about 300 km/h, with an operational range of 15 km and an endurance of 15 minutes, which is suited for defending fixed positions or covering gaps in broader air defense networks. These parameters allow interception of propeller-driven drones within a localized defense perimeter, particularly in scenarios where detection occurs at short notice.

The electric propulsion system simplifies logistics by reducing fuel requirements and maintenance complexity, enabling deployment across multiple units with minimal support infrastructure. The X-Wing is intended for rapid launch following target detection, with minimal preparation time, as its relatively low mass and simple design support higher production rates compared to more complex systems such as the Black Bird. This second interceptor was created for higher-speed engagements, with a mass of 6 kg excluding the warhead and a turbojet engine delivering 12 kg of thrust. It achieves a maximum speed of 670 km/h under optimal conditions, with a range of 30 km and an endurance of 20 minutes, extending its operational reach beyond that of the X-Wing.

This allows it to intercept faster targets, including jet-powered Shahed variants such as the Shahed-238, and even potentially cruise missiles operating at subsonic speeds. Testing conducted in Estonia at temperatures down to −25°C demonstrated a reduction in achievable speed to about 450 km/h, indicating the environmental conditions have a real impact on propulsion efficiency and structural performance. These factors must be accounted for in mission planning, as they directly affect interception windows and engagement probability. For Alta Ares, the Black Bird is therefore conceived for scenarios requiring higher speed and extended range, to complement the X-Wing.

Operational performance data indicates a success rate of about 54% under combat conditions, which includes engagements affected by electronic warfare, weather variability, and target countermeasures. Russian drones have incorporated features such as decoys and evasive maneuvers, including sudden trajectory changes, which complicate interception. Electronic jamming disrupts communication links and sensor inputs, reducing tracking accuracy and requiring algorithmic compensation. Therefore, the continuous feedback from Ukrainian operators is integrated into the software updates, allowing adjustments to detection thresholds, tracking algorithms, and guidance logic.

This iterative process occurs on a short cycle, often following each operational deployment, enabling a rapid adaptation from Alta Ares to new threat behaviors. The gap between prototype and fielded capability is also reduced through this approach, as modifications are tested directly in combat operations rather than in isolated trials. Alta Ares' production capacity currently stands at about 100 units per month, with a stated objective of reaching between 500 and 2,000 units per month by the end of 2026 to match the scale of incoming drone threats.

This increase is constrained primarily by the availability of components within the supply chain, particularly those sourced from European suppliers, which affects both production rate and cost stability. The manufacturing model relies on small facilities of about 300 m² equipped with additive manufacturing systems, enabling flexible production but limiting overall throughput compared to larger industrial plants. Scaling production requires parallel expansion of supply chains and assembly capacity, which introduces additional complexity. Alta Ares CEO said that the demand is driven by Ukraine’s requirement to counter sustained drone attacks, but also that additional interest is emerging in regions such as the Middle East, where similar operational patterns are observed.

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.
Ukraine captures Russian position using only drones in first-ever combat operation without soldiers
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Ukrainian forces executed a first-of-its-kind unmanned assault operation, employing a suite of aerial drones and unmanned ground vehicles to seize a Russian-held position without any infantry involvement, as announced by Volodymyr Zelenskyy on April 13, 2026.

The operation demonstrated a decisive shift in battlefield capability, with fully robotic systems conducting reconnaissance, strike, and position clearance, resulting in the surrender of Russian defenders and zero Ukrainian casualties. This highlights a critical evolution in combat operations, where drones increasingly replace frontline troops at the point of contact, directly impacting force protection, tactical endurance, and the future structure of ground warfare.

Related topic:China tests first autonomous maritime drone swarm to counter future US naval operations

Unmanned systems involved likely included Ratel, TerMIT, Ardal, Rys, Zmiy, Protector, or Volia, as Ukraine had conducted more than 22,000 robotic missions in the preceding three months. (Picture source: X/Volodymyr Zelenskyy)

On April 13, 2026, Ukrainian President Volodymyr Zelenskyy announced that Ukrainian forces captured a Russian-held position using only unmanned aerial drones and unmanned ground vehicles, marking the first documented case in history where a military objective was captured entirely by unmanned systems, without any infantry participation during the assault phase. As a result, Russian defenders surrendered, and no Ukrainian casualties were reported. Drones are no longer auxiliary assets; they have become the central instrument of warfare, reshaping doctrine, force structure, and attrition dynamics.

Nowhere is this clearer than in Ukraine, where their usage has reached industrial scale, with 9,000 aerial drones deployed daily, a consumption rate closer to artillery shells than aircraft sorties. With roughly 240 missions per day, Ukraine's expansion of unmanned operations raises a concrete operational question: whether such systems can now replace infantry on the battlefield. Firstly, we need to analyze the event. The immediate tactical characteristics of the Ukrainian engagement indicate a limited objective, most likely a trench segment or platoon-level strongpoint with a frontage between 20 and 100 meters and a defending force estimated at 5 to 15 personnel, conducted within a control radius below 10 kilometers due to signal constraints and electronic warfare interference.

Without any confirmed involvement of artillery fire preparation, armored support, or infantry maneuver during the assault phase, this suggests that repeated drone strikes degraded defensive positions before unmanned ground vehicles entered the trench system, and the surrender of defenders indicates loss of local combat effectiveness rather than complete physical destruction of the position. Furthermore, there is no indication of multi-directional attack, no evidence of simultaneous objectives, and no follow-on maneuver at scale, confirming that the operation replaced manpower only at the point of contact and not across the wider tactical theater. This transformation is not incremental but systemic.

Ukrainian data indicates drones are responsible for over 80% of battlefield casualties in some sectors, fundamentally reshaping the use of traditional assets like tanks, artillery, and manned aviation. Tasking levels increased by roughly 50% between February and March 2026, and the number of active drone operator crews exceeds 1,000 along the front, with these units responsible for engaging approximately 25% of all battlefield targets and over 10,000 personnel and equipment impacts in certain monthly periods. Small units now possess the ability to conduct real-time reconnaissance, targeting, and strike missions without relying on higher-echelon assets.

Therefore, the operational effect in Ukraine is derived from cumulative volume rather than individual system performance, as drones have become the primary vector of lethal force below 20 km depth, replacing mortars, ATGMs, and parts of artillery, until defensive resistance is degraded or collapses. Documented unit compositions show that a typical assault group in Ukraine now includes 5 to 9 infantry personnel, 4 to 6 drone operators, and 1 to 3 UGV operators. The tactical mechanics observed in this case differ from conventional combined arms doctrine, where artillery suppression is followed by infantry maneuver and close assault since World War I, as the observed sequence replaces this with continuous ISR coverage, successive FPV drone strikes, and eventual insertion of unmanned ground vehicles into the objective, eliminating the requirement for a coordinated assault line and reducing reliance on synchronized maneuver.

The engagement process becomes iterative rather than sequential, with small numbers of drones employed in repeated waves, typically in packets of 5 to 15 units per engagement cycle, and the success becomes dependent on maintaining pressure over time. In practical terms, infantry advances only after drones suppress or destroy enemy firing positions, reversing the traditional sequence where infantry and armor generate contact, and supporting fires follow. This also represents a doctrinal inversion: firepower precedes maneuver at the micro-tactical level, and that firepower is increasingly unmanned. The closest historical parallel is the transition from cavalry to mechanized forces between 1914 and 1940, but even in this case, the key difference is tempo.

Mechanization required industrial retooling and doctrinal development over three decades, while drone integration has occurred within 36 to 48 months. The operational effectiveness of this new model is enabled by a persistent ISR-strike loop in which reconnaissance drones maintain continuous observation of the target area and provide real-time targeting data to strike systems, reducing the delay between detection and engagement to a matter of seconds or minutes. This eliminates the need for separate reconnaissance and fire coordination processes, while creating a continuous exposure zone extending several kilometers from the front line in which any movement can be detected and targeted.

The result is that any exposed individual soldiers, small groups, and specific trench features, such as entrances, intersections, and firing points, become an immediate target, not just a potential one. The role of personnel is altered by this approach, as infantry units are no longer required to conduct the initial breach or clearance of defended positions, as every movement of squads or vehicles is detected within minutes. Instead, they remain in rear positions while operators control unmanned systems from distances of several kilometers, typically between 3 and 10 kilometers, with training requirements shifting toward drone piloting, targeting, and system coordination.

Moreover, the operator survivability increased due to reduced exposure to direct fire, while a new psychological effect is applied on defenders, due to the inability to engage or deter unmanned attackers directly, and to the continuous nature of the threat. Despite the shift, infantry remains indispensable for three functions: terrain control, target validation, and combat in complex environments (urban, subterranean, and fortified environments). The most concrete change is economic, as FPV drones typically cost between $400 and $1,000 per unit and are deployed with acceptance of high loss rates that can exceed 50% in some operations.

Ukraine produced 800,000 drones in 2023, 2 million in 2024, and targeted 5 million in 2025, with 4.5 million FPV units. Russia is assessed to produce at comparable or higher rates, with Ukrainian reporting indicating up to 19,000 FPV drones per day on the Russian side. The operational implication is direct: multiple drones are often required to achieve a single target destruction, while unmanned ground vehicles represent a higher-cost asset but can be reused if recovered. A second measurable indicator is procurement behavior across the globe: for instance, the U.S. Army plans to acquire at least 1 million drones within 2–3 years, compared to ~50,000 annually prior to 2024.

However, operational constraints remain significant and limit the scalability of such methods, as electronic warfare systems can disrupt control links and reduce effective operating range to between 3 and 8 kilometers in contested sectors, while terrain conditions such as mud, forest cover, and urban rubble restrict the mobility and effectiveness of unmanned ground vehicles. Weather conditions such as wind, rain, and fog degrade both surveillance and strike accuracy, and the high consumption rate of drones per engagement imposes an increased logistical demand on supply chains, as there is no evidence that large-scale production can be applied at the battalion or brigade level under combat conditions.

Nevertheless, exercises conducted in Europe and Africa show units building and modifying drones with 3D-printed components, indicating a shift toward decentralized innovation. The broader structural implications of the drone revolution indicate that unmanned systems are increasingly performing roles previously assigned to artillery, reconnaissance units, and assault infantry simultaneously. Tactics evolve from maneuver to sustained precision attrition, force structures shift toward smaller human elements supported by large numbers of unmanned systems, while the distinction between air and ground capabilities becomes less defined. A Ukrainian innovation has been to insert a new layer: interceptor drones, which achieve >60% success rates at a cost ratio near parity with incoming drones.

By early 2026, these interceptors account for 30% of aerial kills in Ukrainian air defense, meaning one-third of engagements are now handled by UAVs rather than aircraft, missiles, or guns. For military planners, drones now provide localized strike and surveillance capacity at the unit level, and operational tempo becomes dependent on sortie generation rates rather than movement speed. Therefore, like World War II, the advantage accrues to forces capable of sustaining higher production levels and operator throughput. However, current evidence indicates that this represents a phase-specific transformation in combat methods rather than a complete replacement of traditional military structures, with the extent of future expansion dependent on overcoming existing constraints in communications, mobility, and scalability.

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.
Russia deploys first R-77 FrankenSAM air defense system following repeated Ukrainian drone strikes
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Russia has deployed its first improvised ground-based R-77-1 FrankenSAM air defense system in Oryol, adapting the R-77-1 air-to-air missile into a truck-mounted launcher to counter persistent Ukrainian drone and cruise missile strikes.

The system, which reflects an urgent effort by Russia to restore short-range air defense coverage and protect rear-area infrastructure under sustained drone attacks from Ukraine, is a Ural-based launcher equipped with four missiles but lacking onboard radar or fire-control systems, indicating reliance on external targeting data. This deployment highlights degraded Russian air defense inventories and underscores a stopgap approach to maintain battlefield resilience and deterrence against increasingly frequent long-range Ukrainian strikes.

Read also:How Ukraine’s FrankenSAM project lets old Soviet air defense systems fire U.S. missiles

Russia has deployed an improvised R-77-1 FrankenSAM air defense system to counter Ukrainian drone and cruise missile attacks inside its territory, but with a limited range due to the absence of onboard radar. (Picture source: Telegram/ Voenny Osvedomitel)

On April 11, 2026, the Russian Telegram channel Voenny Osvedomitel showed the first Russian FrankenSAM in Oryol, a city located about 160 km from the Ukrainian border, which Ukrainian UAVs and strike systems have repeatedly targeted between autumn 2025 and winter 2026 with long-range one-way attack drones and cruise missiles. This truck-based air defense system is equipped with four R-77-1 air-to-air missiles, marking the first observed field deployment of this missile in a ground-based role. The appearance of this system corresponds to a sustained attrition in Russian surface-to-air missile inventories and air defense systems, as well as increasing pressure on rear-area air defense coverage.

Its configuration aligns conceptually with hybrid air defense systems such as NASAMS and Ukrainian FrankenSAM programs, but the level of integration and industrialization appears significantly lower. The launcher is mounted on a truck basis consistent with a Ural-series chassis, although the exact model is not confirmed, and carries four R-77-1 missiles mounted on aviation pylons fixed to a rail structure. This configuration directly reproduces aircraft launch interfaces, with missiles lacking canisterization or protection. The rail-based layout indicates minimal structural modification, prioritizing an ad hoc and opportunistic response over survivability. No onboard radar, tracking system, or fire control unit is visible, implying that the launcher cannot independently detect or engage targets without external input.

This absence of organic sensors suggests reliance on offboard cueing from radar networks or other surveillance assets, but also increases vulnerability to counterfire, as it cannot detect the possible threats targeting it. Nevertheless, the R-77-1 SAM system closely resembles Ukrainian FrankenSAM concepts, where existing missile stocks are adapted to improvised launchers, for immediate fielding using available components. The R-77-1 missile is a medium-range, active radar-guided air-to-air weapon developed for fighter aircraft such as the Sukhoi Su-35, the Sukhoi Su-30SM, and the Mikoyan MiG-29.

With a mass of about 190 kg, a length of 3.71 m, and a diameter of 200 mm, the R-77-1 carries a high-explosive fragmentation warhead weighing between 22 and 22.5 kg, equipped with a proximity fuze designed for air-to-air engagement. The guidance system combines inertial navigation during the initial phase, midcourse datalink updates, and active radar homing in the terminal phase, enabling fire-and-forget missions. In air-launch conditions, the R-77 has a range of about 80 km, while the improved R-77-1 reaches up to 110 km, with a maximum speed close to Mach 4. When adapted for ground launch, earlier performance data indicate an engagement range between 1.2 and 12 km and an altitude envelope from 0.02 to 9 km, with a lateral intercept parameter of up to 8 km.

The transition from air launch to ground launch results in a substantial loss of initial energy, as air-to-air missiles depend on aircraft speed and altitude at release to extend their engagement envelope. Typical launch conditions for fighter aircraft include speeds between Mach 0.8 and 1.5 and altitudes between 5 and 12 km, providing a large portion of the missile’s total kinetic and potential energy. Removing these factors reduces available energy by an estimated 70 to 90 percent, leading to a proportional decrease in range and engagement effectiveness. This reduction compresses the no-escape zone and limits the missile’s ability to intercept fast or maneuvering targets. The Russian FrankenSAM system, therefore, operates with a significantly reduced engagement envelope compared to its air-launched deployment.

It is likely dependent on external target designation and tracking data to compensate for the lack of onboard sensors. The absence of an integrated fire-control system further constrains reaction time and engagement coordination. The development of ground-based R-77 air defense systems traces back to Soviet research conducted in the 1980s, when integration with systems such as Kvadrat and S-60/AZP-57-based launchers was explored. These early efforts did not progress to operational deployment due to propulsion limitations and the reduced effectiveness associated with ground launch. From the 1990s through the 2010s, there is no evidence of fielded Russian systems using this concept.

Following the start of the war with Ukraine in February 2022, work on adapting the R-77-1 for ground-based use resumed in Russia, driven by the increasing losses of air defense systems. In 2024, a test launcher was observed at the Kapustin Yar proving ground, featuring a configuration different from the system later seen in Oryol. By April 2026, the system had been deployed in a rear-area defense role, indicating a cycle of about two to three years from reactivation to field deployment, if this system wasn't improved by a local unit. From a strict military point of view, the operational role of the Russian FrankenSAM system is limited to short-range air defense of strategic locations, including logistics hubs, ammunition depots, and command infrastructure within areas exposed to Ukraine's drone and cruise missile strikes.

Its target set includes low-altitude cruise missiles, long-range one-way attack drones, and potentially helicopters or slow-moving aircraft operating within its engagement envelope. The system is not capable of engaging high-altitude aircraft, ballistic missiles, or targets at extended range due to its ground-based launcher. Its deployment in Oryol aligns with Russia's observed need to reinforce air defense coverage in regions subject to repeated strikes during late 2025 and early 2026. The limited engagement range requires positioning close to defended assets, reducing operational flexibility, as its effectiveness depends on external detection and tracking systems. In comparison with analogous systems, the Russian FrankenSAM aligns with Western and Ukrainian efforts to adapt air-to-air missiles for ground-based air defense roles.

The NASAMS, developed by the United States and Norway, uses AIM-120, AIM-9, and possibly Ukrainian missiles in a canisterized configuration with integrated radar and fire-control systems, achieving engagement ranges exceeding 20 to 30 km in ground-launch mode. The British Raven system deployed for Ukraine uses ASRAAM missiles mounted on a truck chassis with electro-optical targeting and limited radar integration. Ukrainian FrankenSAM systems combine missiles such as RIM-7 and AIM-9 with Soviet-era launchers, creating hybrid systems with varying degrees of integration. The Russian system differs in its lack of canisterization, absence of integrated radar, and shorter estimated engagement range of up to 12 km.

Its level of industrial integration appears lower, indicating a more improvised configuration using available missile inventories. Sustainability constraints will likely affect the system’s operational impact, particularly in terms of missile availability and launcher capacity. Each launcher carries four ready-to-fire missiles, limiting its engagement capability before requiring reload. The reload process is not visible and is likely manual, increasing turnaround time and vulnerability during rearming. The R-77-1 missile is also used by Russian aviation units, creating competition between air and ground roles for available stocks. Evidence of supply constraints includes the use of older R-27 missiles in air missions, indicating pressure on R-77-1 inventories. The Russian system, therefore, represents a temporary measure to maintain coverage despite losses in dedicated air defense systems.

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.