Army - Conflicts in the world
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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.
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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.
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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.
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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.
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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.
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Russia's use of Belarusian-made Pantsir-S1 on MZKT chassis in Ukraine confirmed after new analysis
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Russian forces have lost the first 96K6 Pantsir-S1 short-range air defense system mounted on a Belarusian MZKT-7930 chassis in combat operations in Ukraine, as confirmed by a new post-strike analysis.
The system, destroyed by a Ukrainian drone near Mariupol on February 27, 2026, reveals an expanded integration of Belarusian-manufactured chassis for Russian operations against Ukraine, while sustaining Russia’s frontline air defense capacity under attrition pressure. The reassessment identified structural features unique to the MZKT chassis, and also confirmed the fielding of a variant ordered through a 2024 Belarusian contract.
Russia's loss of the first 96K6 Pantsir-S1 short-range air defense system mounted on a Belarusian MZKT-7930 chassis in combat operations in Ukraine can be confirmed, following these new informations. (Picture source: Ukrainian MoD and BelPol)
On April 5, 2026, Militarnyi announced that a Russian Pantsir-S1 air defense system destroyed by Ukraine near occupied Mariupol on February 27, 2026, initially identified as mounted on a BAZ chassis, required reassessment following the resurfacing of a BelPol investigation. Detailed examination of available imagery revealed structural features inconsistent with BAZ trucks, including distinct cab geometry and axle spacing, leading to a corrected identification as an MZKT-7930-based variant. This confirmation establishes the operational use of a Belarusian-manufactured chassis and effectively validates the implementation of a 2024 contract covering 18 MZKT-7930-312 chassis intended for Pantsir-S1 integration.
The presence of this variant in a frontline engagement suggests either a depletion of standard Pantsir-S1 inventory or delays affecting replenishment from primary production lines. The rapid fielding of such a configuration also indicates a compressed timeline between production, system integration, and deployment into active combat units. This timeline is likely driven by sustained attrition rates affecting Russian short-range air defense assets. Let’s remember that on February 27, 2026, a Ukrainian drone destroyed a 96K6 Pantsir-S1 air defense system in the vicinity of the Azovstal industrial complex, during a night operation targeting Russian short-range air defense coverage near Mariupol.
The system was positioned to protect infrastructure of logistical and industrial relevance, yet it did not engage the incoming drone, possibly indicating a failure within its detection-to-engagement sequence. The strike profile, conducted after dark, fits into a pattern of repeated Ukrainian strikes against Russian air defense systems assigned to the defense of strategic locations. The loss of a single Pantsir unit reduces local engagement capacity by up to 12 ready-to-fire missiles and two 30 mm autocannons, directly increasing the pressure on deployed air defense crews in the region. Then, Militarnyi reassessed the strike, showing that the destroyed system was not mounted on a Russian BAZ-6909 chassis, as initially assessed, but on a Belarusian MZKT-7930 chassis.
The distinction is visible through structural elements such as the armored cab with a two-section windshield, the forward axle placement, and the proportional spacing between the four axles, which differs by several tens of centimeters compared to BAZ trucks. The cab profile is higher and more angular, consistent with MZKT production standards, while the chassis corresponds most closely to the MZKT-7930-415 variant, which incorporates reinforced cab protection and modified load distribution. This configuration has not been widely documented in operational Russian units, indicating limited production or transitional status. The correction of the chassis type confirms once again that multiple truck chassis are being used for the Pantsir weapon system.
It also implies parallel integration lines within the Pantsir production chain, as the presence of this variant in a frontline zone indicates that it has passed beyond testing phases into active service. The MZKT-7930 chassis used in this Pantsir system can be directly linked to a 2024 delivery contract leaked by a BelPol investigation released on November 22, 2025. This contract covers 18 MZKT-7930-312 chassis, produced by Belarus's Minsk Wheel Tractor Plant (MZKT) for integration with the Russian 72V6 combat module. The transition from index 312 to 415 suggests a modification phase, likely involving structural reinforcement of the cab and adjustments to weight distribution to accommodate combat feedback.
The appearance of such a chassis in Mariupol confirms that at least part of this batch has been delivered, assembled, and deployed within a two-year window. The integration of the Belarusian chassis does not require redesign of the combat module, but establishes that Belarus is now supplying not only components or chassis, like for the Iskander, but also complete air defense systems for the Russian Army. The Pantsir system destroyed near Mariupol is assessed to belong to an early or transitional batch incorporating the MZKT-7930-415 chassis, with dimensions matching the MZKT-RU.7930-415.S.28.01 configuration leaked in the BelPol investigation.
The overall vehicle length reaches 12,670 mm, including a 2,995 mm front overhang, axle spacing of 2,350 mm between the first and second axles, 3,900 mm between the second and third, 2,200 mm between the third and fourth, and a 1,000 mm rear overhang. The hull width measures 3,070 mm, with an internal structural width of 2,375 mm, while the upper structure expands to 4,076 mm externally and 3,150 mm internally. Height varies depending on configuration, with the cabin at 3,025 mm, the rear section at 3,290 mm, the chassis reaching 4,270 mm, and a maximum operational height of 5,890 mm when radar and weapon systems are elevated. The chassis incorporates a front approach angle of 35° and a rear angle of 25°, supporting off-road mobility despite its mass and size.
Historically, the MZKT-7930 has been considered for Pantsir integration since the late 1990s, particularly during export-oriented development phases focused on potential Gulf customers that required higher off-road mobility and payload stability. The MZKT-7930 chassis provides an 8x8 configuration with a load capacity exceeding 20 tons, enabling stable firing of both missile and gun systems without significant recoil displacement. Compared to Russia's KamAZ-6560 chassis, which has been widely used for the Pantsir, the MZKT offers a wider track and lower center of gravity, improving stability during simultaneous radar tracking and firing operations. Alternative solutions, such as MAN trucks, have been used for export variants, while tracked GM352 vehicles provide better mobility in soft terrain.
The reintroduction of MZKT chassis into operational use suggests either a shortfall in KamAZ production capacity or performance limitations identified in recent engagements. The armored cab configuration also indicates adaptation to increased exposure to fragmentation and small arms fire. The Pantsir-S1 system is designed to detect targets at ranges up to 32-36 km with its search radar and engage at distances up to 20 km with missiles, yet low-altitude, low-signature drones reduce detection probability and compress reaction time. Night conditions further degrade optical tracking channels, increasing reliance on radar performance.
The Mariupol loss suggests either delayed detection, target saturation, or insufficient crew response time, all of which have been observed in previous engagements. Ukrainian strike patterns indicate deliberate targeting of air defense nodes to create localized gaps in Russia's air defense coverage. Each destroyed unit reduces the density of overlapping defense zones, forcing redistribution of remaining assets and increasing vulnerability elsewhere. The Mariupol strike, therefore, contributed to a cumulative degradation of Russian short-range air defense effectiveness in occupied sectors of Ukraine. The industrial framework supporting this deployment shows a high level of dependency on Belarusian heavy vehicle manufacturing, with Minsk Wheel Tractor Plant providing specialized 8x8 chassis not fully replaceable by domestic Russian alternatives.
Beyond initial production, Belarusian facilities are involved in repair and overhaul processes, including the refurbishment of damaged vehicles returning from operational zones. This includes dedicated maintenance infrastructure capable of handling heavy multi-axle vehicles and integrated combat systems. Financial flows tied to these contracts represent a significant portion of MZKT’s output, reinforcing its reliance on Russian defense demand. The integration of the Belarusian industry now extends across at least three major assets of the Russian Armed Forces: the Iskander ballistic missile, the Pantsir air defense system, the Topol-M1 ICBM, and the Oreshnik IRBM. This arrangement ensures continuity of supply despite attrition losses or Western sanctions on Russia.
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 uses Swedish RBS 15 missile for first time to strike Russian Sivash offshore platform in the Black Sea
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The Ukrainian Navy may have conducted its first confirmed combat use of the RBS 15 anti-ship missile during a strike against the Russian-controlled Sivash offshore platform in the Black Sea.
Footage released on April 6, 2026, shows a truck-mounted coastal launcher firing the missile, confirming Ukraine’s growing ability to conduct precision maritime strikes alongside the Neptune system, strengthening its ability to disrupt Russian surveillance and logistics nodes while increasing coastal denial operations in the Black Sea theater. The RBS 15 missile, developed by Saab, also demonstrated its precision strike capability against maritime infrastructure, complementing its traditional anti-ship capability.
The launcher observed in the footage corresponds to known RBS 15 mobile launchers, particularly in the design of the transport-launch containers, which are rectangular and mounted in pairs on a truck chassis. (Picture source: Ukrainian Navy and Saab)
On April 6, 2026, the Ukrainian Navy released footage showing the launch of what is assessed to be a Swedish Saab RBS 15 anti-ship missile during a strike against the Russian Sivash offshore platform, with the video itself bearing a timestamp of March 12, 2026, indicating that the engagement occurred earlier and was intentionally disclosed with a delay. The sequence shows a truck-mounted coastal launcher firing a subsonic cruise missile toward a fixed maritime structure located in the northern Black Sea area. The RBS 15 had previously been announced as part of Swedish military assistance in 2022, but no prior operational use had been visually confirmed.
The release, therefore, might constitute the first observable employment of this missile type by Ukrainian forces. The target selection is consistent with known Russian use of offshore platforms for surveillance and communications relay functions, while the strike expands Ukraine’s anti-ship inventory beyond the R-360 Neptune system, which had already been used in previous engagements. The launcher visible in the footage corresponds to known RBS 15 coastal configurations, with two rectangular transport-launch containers mounted on a truck chassis and oriented at an elevation angle consistent with cruise missile launch profiles. The cabin placement, equipment compartment location, and overall vehicle layout align with Swedish-designed mobile coastal defense systems.
The missile itself shows a propulsion layout with air intakes positioned on both sides of the fuselage, indicating a turbojet-powered design rather than a solid-fuel rocket. The exhaust plume and launch behavior are consistent with this propulsion type. Comparative analysis of container dimensions and mounting structure matches previously documented RBS 15 configurations. No other system currently known to be in Ukrainian service combines these specific physical characteristics. The identification for this article is therefore based on a combination of OSINT, launcher architecture, and missile configuration rather than a single feature. These elements together support the attribution to the RBS 15 system.
The timing gap between the March 12 recording and the April 6 publication indicates that the release was not intended to provide real-time operational information, but rather to demonstrate capability under controlled conditions. The Sivash platform is located in a semi-enclosed maritime environment where radar coverage and logistics support are critical, making it a relevant target within a denial framework. The use of an anti-ship missile against such a target suggests that coordinates were pre-programmed rather than relying on real-time tracking, which is consistent with fixed-object targeting. The launch profile indicates a standard coastal battery firing sequence, implying integration with external targeting inputs, potentially including aerial or satellite reconnaissance.
The absence of official follow-on footage limits assessment of the impact effects on the paper, but the engagement itself confirms the operational deployment of the RBS 15 by Ukraine. The disclosure pattern suggests that Ukraine intends to signal capability without revealing deployment density or geographic distribution, introducing an additional variable for the Russian Navy's planning in the Black Sea. Anti-ship missiles such as the RBS 15 are designed to engage surface vessels but are structurally classified as cruise missiles with autonomous navigation once launched. After receiving targeting data, these missiles follow a programmed route using inertial navigation, typically corrected by satellite positioning systems.
During the terminal phase, an active radar seeker acquires the target, allowing final trajectory adjustments. The sea-skimming flight profile, often between 2 and 10 meters above the water surface, reduces detection range and limits reaction time for enemy defenses. These missiles are deployable from multiple vectors, including ships, aircraft, submarines, and land-based mobile launchers. In addition to maritime targets, modern anti-ship missiles can engage fixed land or offshore infrastructure, particularly within coastal regions, to deny access to maritime areas rather than to maintain continuous control at sea. In the Black Sea context, this translates into restricting Russian movement and increasing operational risk for naval units operating within Ukraine's range.
The RBS 15 missile was developed by Saab Bofors Dynamics, a subsidiary of Saab, in the late 1970s and entered service in the mid-1980s as a long-range anti-ship cruise missile. The missile measures approximately 4.35 meters in length, with a diameter of 50 cm and a wingspan of about 1.4 meters. Its launch mass ranges from 650 kg in-flight to about 800 kg, including boosters. It carries a 200 kg high-explosive warhead designed for blast and fragmentation, with detonation triggered by impact or proximity. Propulsion is provided by a turbojet engine, enabling a sustained speed of about Mach 0.9, equivalent to roughly 1111 km/h. Guidance combines inertial navigation with GPS correction during mid-course flight and active radar homing in the terminal phase.
The missile maintains a low-altitude flight profile over water to reduce detection probability. The variant most likely transferred to Ukraine is the RBS 15 Mk2, based on its known export history and the absence of indicators associated with later versions. The Mk2 retains the same general dimensions and propulsion system as earlier variants but incorporates improved guidance and resistance to electronic countermeasures. Its range of more than 70 km allows coverage of coastal waters and offshore installations within that radius. The Mk3 variant, which exceeds 200 km in range and includes enhanced GPS integration and targeting logic, is not assessed to have been supplied.
The Mk4, with a range above 300 km and updated seeker technology, represents a more recent development and is, to date, unlikely to have been transferred. However, nothing definitively rules out these last two versions, in the absence of clear images of the variant transferred to the Ukrainians. The Mk2 nonetheless provides a significant increase in capability compared to the RBS-17, which has a shorter range of only 8 km and a smaller warhead of just 48 kg. This allows Ukraine to engage targets at medium distances with a heavier payload, filling a gap between short-range coastal systems and longer-range strategic missiles.
The use of the RBS 15 against the Sivash platform indicates a deliberate expansion of target categories beyond naval vessels to include fixed offshore infrastructure. Such platforms are used for radar coverage, communications relay, and logistical support, making them integral to maritime operations. The RBS 15’s ability to follow pre-programmed waypoints allows it to approach targets from optimized angles, including overland routes if necessary. This reduces reliance on continuous target tracking and enables strikes against static objectives with known coordinates. The selection of an offshore platform by Ukraine rather than a ship, such as the frigate Admiral Makarov, suggests a focus on reducing Russia’s ability to maintain situational awareness and sustain maritime activity in the Black Sea.
It also demonstrates the adaptability of anti-ship missiles beyond ships to include support nodes. This has implications for operational planning, as it affects not only naval units but also the systems that enable them to operate. The Swedish transfer of anti-ship missiles to Ukraine was publicly announced in 2022, but until this event, there had been no observable deployment of the RBS 15 system in combat. The delivery complements existing Ukrainian systems, particularly the R-360 Neptune, which has a longer range and has been used in previous engagements. The combination of these systems creates a layered strike capability, with the Neptune covering extended distances and the RBS 15 providing medium-range engagement options. This allows for more frequent use of missiles in scenarios where long-range assets may not be required, further complicating defensive planning for Russian forces.
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 conducts second strike on Russian frigate Admiral Makarov within five weeks to disrupt missile attacks
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Ukraine conducted a second precision drone strike against the Russian Navy’s Admiral Grigorovich-class frigate Admiral Makarov at the Novorossiysk naval base, retargeting a key Kalibr cruise missile launch platform within five weeks.
The April 6, 2026, operation, executed by Ukrainian unmanned systems forces, aimed to degrade Russia’s sea-based long-range strike capability and disrupt ongoing missile attack cycles against Ukrainian territory. The first strike, confirmed by the Ukrainian General Staff following earlier damage assessment inflicted on March 2, inflicted damage to both the Admiral Essen and Admiral Makarov frigates, reducing Russian launch capacity, weakening operational readiness, and increasing pressure on Black Sea Fleet survivability and deterrence posture.
The limited number of available Admiral Grigorovich-class frigates, only three, increases the operational importance of each unit, as each unit's damage directly reduces Russia's missile strike capacity against Ukrainian cities. (Picture source: Russian and Ukrainian MoD)
On April 6, 2026, the General Staff of the Armed Forces of Ukraine confirmed that two Admiral Grigorovich-class frigates of the Russian Navy sustained damage during the March 2 strike against the port of Novorossiysk. The attack, carried out overnight between March 1 and March 2, resulted in confirmed damage to the frigates Admiral Essen and Admiral Makarov, both equipped with Kalibr cruise missiles used for land-attack missions against Ukraine. Ukrainian forces then conducted a renewed drone strike against the Admiral Makarov, also on April 6, indicating a sustained operational effort targeting naval strike assets and associated infrastructure at the same port within a five-week interval.
The Novorossiysk naval base, located in Krasnodar Krai, has functioned as a primary basing site for Black Sea Fleet units relocated from Sevastopol following repeated Ukrainian strikes in Crimea. The targeting cycle demonstrates a focus on targeting ships while in port, during maintenance or rearming phases, where defensive readiness is reduced, one week after an attack against the Project 23550 combat icebreaker Purga. The Ukrainian General Staff confirmed that Admiral Essen and Admiral Makarov sustained damage during the March 2 strike, with the extent of structural and systems degradation still under assessment and additional vessels potentially affected.
Admiral Essen had previously been identified in satellite imagery with visible damage consistent with an impact near key onboard systems, including radar and air defense components. Both frigates belong to the same class and represent two of the few Kalibr-capable surface units available in the Black Sea, increasing the operational significance of the strike. The attack was conducted at night, reducing visual detection and complicating defensive engagement. The concentration of these vessels at a single port creates a density of high-value targets within a constrained area. Damage to either ship reduces available launch capacity for 3M14 Kalibr missiles, each vessel typically carrying up to eight missiles per deployment cycle.
The loss or degradation of onboard sensors and air defense systems further reduces survivability in subsequent engagements. This creates a compounding effect on operational readiness over time. The April 6 operation was carried out by the 1st Separate Center of Unmanned Systems Forces, with planning and coordination by the Security Service of Ukraine, against one of the frigates moored in Novorossiysk, initially identified as Admiral Grigorovich but later clarified as the Admiral Makarov based on fleet disposition. The drones approached at low altitude and were engaged at close range by the ship’s onboard Shtil-1 air defense system, which launched interceptors directly from the deck during the approach phase.
Despite this response, at least one drone impacted the vessel, and multiple fires were observed along the port area, including near fuel and logistics infrastructure. The engagement distance suggests that detection occurred within a short time window, likely under a few kilometers, limiting interception opportunities. The attack coincided with a broader drone strike affecting port facilities, including the Sheskharis oil terminal area, indicating a coordinated strike package. The extent of damage to the frigate remains under evaluation, including potential impacts to the bridge, vertical launch system, or sensor arrays. The ability to conduct a second strike within weeks confirms that Russia's shipboard defenses alone are insufficient to fully secure vessels in port.
The Admiral Grigorovich-class, or Project 11356R, consists of three frigates with a full displacement of approximately 4,035 tons, a length of 124.8 meters, and a crew of about 180 personnel, including officers and support elements. Each ship is equipped with a universal vertical launch system capable of deploying up to eight Kalibr cruise missiles, with ranges exceeding 1,500 kilometers depending on variant. Air defense is provided by the Shtil-1 system with 24 9M317M missiles, supported by two AK-630M close-in weapon systems and portable air defense launchers. The ships also carry a 100 mm A-190 naval gun, anti-submarine rocket systems such as RBU-6000, and torpedo launchers.
Aviation capability includes a hangar and flight deck for one Ka-27PL or Ka-31 helicopter, enabling reconnaissance and anti-submarine operations. Propulsion is provided by a gas turbine system generating over 60,000 horsepower, enabling speeds above 30 knots. Operational endurance reaches up to 30 days, with a range of approximately 4,850 nautical miles at cruising speed. Within the current conflict with Ukraine, these specifications position the class as a multi-role combatant with primary emphasis on strike missions. Within the Black Sea Fleet, only a limited number of Project 11356R frigates are available, and as of early 2026, only Admiral Essen and Admiral Makarov were consistently present in the Black Sea due to access restrictions through the Bosphorus affecting Admiral Grigorovich.
This constraint increases the operational importance of the three units, as they represent a significant portion of the fleet’s surface-based long-range strike capability. Each frigate can launch a finite number of Kalibr missiles before requiring a return to port for reloading, creating predictable logistical cycles that can be targeted. The relocation of these ships to Novorossiysk was intended to reduce exposure after attacks on Sevastopol, but the March and April strikes indicate that this relocation has not provided effective protection. Damage to Admiral Essen on March 2 and the renewed attack on Admiral Makarov on April 6 reduce available launch platforms, potentially lowering the frequency of missile strikes conducted from the sea.
The targeting of these ships during port calls also disrupts both operational deployment and maintenance cycles. The FP-2 drone used in the attack is a kamikaze drone developed by the Ukrainian company Fire Point to deliver heavier payloads at shorter distances than earlier deep-strike systems. The FP-2 has an operational range of about 200 kilometers, a reduction from the 1,400 to 1,600 kilometers of the earlier FP-1, achieved by increasing the warhead mass to between 100 and 120 kilograms depending on configuration. The drone has a wingspan of about 6 meters and a takeoff weight of roughly 215 kilograms, allowing it to carry modified aerial bombs or dedicated high-explosive charges capable of damaging hardened infrastructure and naval vessels.
It uses a fixed-wing configuration with propeller propulsion and can be launched from simple ground-based ramps within about 15 to 20 minutes, enabling rapid deployment close to the frontline. Guidance combines autonomous navigation for pre-programmed targets with optional terminal control for higher accuracy, resulting in successful strikes against air defense systems such as S-400 radars and Pantsir-S1 systems. In parallel with the frigate strike, Ukrainian forces targeted the Sivash offshore drilling platform using unmanned systems from the 413th Separate Battalion “Raid,” coordinated with naval deep-strike units.
The cumulative impact of Ukrainian strikes on Novorossiysk oil infrastructure since 2024 has shifted from temporary disruption to recurring degradation of export handling capacity, particularly at the Sheskharis terminal and the adjacent Caspian Pipeline Consortium facilities. The Sheskharis terminal, historically responsible for a significant share of Russian Black Sea oil exports and capable of processing multiple tankers simultaneously, has been repeatedly targeted, with six of its seven loading berths damaged during the March 2, 2026, strike and again affected on April 6.
The April 6 attack also damaged pipeline nodes, oil metering systems, and loading piers, while setting multiple storage tanks on fire and affecting at least one single-point mooring connection linked to CPC operations. Similar attacks on Baltic terminals such as Primorsk and Ust-Luga have reduced overall Russian export capacity by up to 20% during peak disruption periods in early April 2026, indicating a coordinated campaign targeting multiple export corridors. The defensive performance observed during the April 6 engagement highlights specific limitations of shipborne air defense systems when operating in a fixed port environment.
The Shtil-1 system relies on radar detection and missile guidance, both of which are affected by clutter and limited engagement geometry in a harbor setting. The close-range detection of incoming drones reduces the available reaction time, potentially to seconds rather than minutes. Ships moored at port cannot maneuver to optimize defensive orientation or create separation from threats, further reducing effectiveness. The use of multiple drones increases the likelihood of saturation, where the number of incoming targets exceeds available interceptors or engagement channels. The cost disparity between drones and interceptors increases the economic burden of defense for Russia, suggesting that additional layered defenses, including harbor-based systems, may be relocated in the future.
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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UK's RapidRanger air defense systems now protect Ukraine from Russian drone attacks
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British RapidRanger short-range air defense systems, developed by Thales UK, are now operationally deployed by Ukraine to counter Russian drone and low-altitude aerial threats, significantly enhancing mobile SHORAD capability on the battlefield.
The system, confirmed in combat use during an official visit by Ukrainian and Lithuanian defense officials, is actively engaged within Ukraine’s layered air defense network, providing rapid-reaction interception against high-volume, low-signature targets that evade higher-tier systems. Integrated into mobile air defense units alongside systems such as Starstreak and Stormer, RapidRanger strengthens Ukraine’s ability to sustain continuous low-altitude coverage, improving resilience against drone saturation attacks and reinforcing frontline air defense readiness.
Read also:UK to deliver 1,000 Martlet missiles to Ukraine in £500M air defence package
Each RapidRanger launcher carries four ready-to-fire missiles, either Starstreak 2 and Lightweight Multirole Missiles, providing an immediate engagement capability without additional preparation time. (Picture source: Telegram/Mykhailo Fedorov)
As reported by Militarnyi on March 27, 2026, British RapidRanger short-range air defense systems were confirmed in operational use in Ukraine, where they are being employed against Russian aerial threats within a layered short-range air defense structure. The systems were presented during a visit involving Ukrainian Defence Minister Mykhailo Fedorov and Lithuanian Defence Minister Robertas Kaunas, indicating active deployment rather than testing or training status. Their introduction follows a United Kingdom financial support framework valued at nearly £1.7 billion, used to procure air defense systems and associated missile stocks.
Ukrainian forces are incorporating the RapidRanger into mobile air defense groups tasked with countering drones, low-flying helicopters, and cruise missiles operating at low altitude. The deployment reflects a requirement to address high volumes of small, low-signature targets that bypass higher-tier systems. The system is now one element within a broader network combining multiple short-range solutions. Its fielding also aligns with prior deliveries of Starstreak and Stormer-based systems from the United Kingdom. The RapidRanger is a vehicle-mounted launcher system designed by Thales UK with a total launcher mass below 500 kg, allowing integration on light tactical vehicles such as 4x4 wheeled chassis, including Spanish-made URO VAMTACs.
The system consists of a stabilized turret, dual missile pods, an electro-optical sighting head, and an operator control interface, all mounted as a modular unit. Its low weight allows transport by tactical aircraft such as C-130 and simplifies deployment without heavy logistics support. The turret incorporates servo-driven mechanisms for elevation and azimuth control, enabling rapid target alignment. The system can operate as a standalone firing unit or be connected to a wider command and control network, integrating with early warning sensors. This dual configuration allows use in both centralized air defense structures and dispersed mobile units. The design prioritizes mobility, allowing relocation between firing positions within short timeframes under combat conditions.
The launcher carries four ready-to-fire missiles arranged in two panniers, with no reload mechanism integrated into the turret itself, requiring manual reloading after expenditure. It supports both Starstreak high-velocity missiles and Lightweight Multirole Missiles (LMMs), also known as Martlet, with mixed configurations possible depending on mission requirements. The Martlet has a mass of 13 kg, a length of 1.3 meters, and a diameter of 76 mm, and can be fitted with either a blast-fragmentation or tandem shaped-charge warhead weighing about 3 kg. Its ground-launched engagement range exceeds 6 km, while aerial launch extends to 8 km. The Starstreak missile, by contrast, exceeds Mach 3 and uses three submunitions for terminal impact, increasing hit probability against maneuvering targets.
Both missiles use laser beam-riding guidance, requiring the operator to maintain continuous tracking until impact. This guidance method eliminates reliance on infrared seekers and prevents interference from flares or thermal masking. The sensor suite is centered on a stabilized sight head integrating daylight television cameras and thermal imaging systems operating in mid-wave or long-wave infrared bands. These sensors are coupled with an automatic target tracking function that maintains lock once the operator designates a target. The system includes a laser guidance unit that projects the beam used for missile guidance, along with an optional laser rangefinder.
A 360° surveillance capability is provided either through passive infrared search and track or through integration with a radar unit, depending on configuration. Detection range exceeds 15 km, allowing identification of targets before they enter engagement range. The system’s reaction time is under five seconds, driven by automatic slew-to-cue functionality that aligns the launcher with detected targets. In the RapidRanger system, these sensors are designed to enable engagement of small and fast-moving targets under limited visibility conditions. The engagement envelope of the RapidRanger extends beyond 7 km, with effectiveness concentrated in the low-altitude layer below the coverage of medium-range systems.
The laser beam-riding guidance ensures that the missile trajectory remains aligned with the operator’s line of sight, maintaining accuracy regardless of the target’s thermal or radar signature. This is particularly relevant in Ukraine for engaging drones deployed by Russia with minimal heat output or reduced radar cross-section. The SHORAD system is capable of intercepting targets approaching at low altitude and moderate speed, including rotary-wing aircraft and loitering munitions. The Lightweight Multirole Missile’s proximity fuze and impact fuze increase effectiveness against small aerial targets. The absence of onboard seekers reduces unit cost and supports large-scale production, which aligns with Ukraine's requirement to counter high-frequency, low-cost aerial threats.
In Ukrainian service, the RapidRanger is deployed within mobile air defense teams operating in dispersed formations, often mounted on light vehicles to allow rapid repositioning. These units are tasked with defending infrastructure, logistics nodes, and frontline positions against persistent drone reconnaissance and strike missions. The system is integrated into a layered structure alongside other short-range systems and complements medium-range interceptors such as NASAMS and IRIS-T. Its mobility allows coverage of sectors where fixed systems are less effective or vulnerable to targeting. The British system is also used to counter saturation attacks involving multiple drones approaching simultaneously from different directions.
The use of Lightweight Multirole Missiles in Ukraine has also demonstrated its effectiveness against reconnaissance UAVs and attack helicopters in previous engagements. This operational model emphasizes frequent relocation and rapid engagement cycles. The industrial framework supporting the RapidRanger includes production of both launch systems and missiles by Thales UK in Belfast, with manufacturing capacity being expanded through 2027. The United Kingdom has committed to supplying thousands of Lightweight Multirole Missiles to Ukraine under multi-year agreements, including a program for 5,000 missiles linked to a broader financing arrangement.
This program includes provisions for technology transfer to Ukraine, enabling local production and assembly of missiles and potentially launcher components. The objective is to both reduce reliance on external supply chains and shorten maintenance and resupply timelines. Production expansion includes workforce increases and infrastructure scaling at manufacturing sites. The financial structure involves loans and export finance mechanisms to sustain procurement over time, according to both immediate operational needs and long-term sustainment. From a strategic perspective, the RapidRanger addresses a specific operational gap related to the proliferation of low-cost drones and low-altitude threats that are not efficiently countered by higher-tier systems.
Its cost per engagement is lower than that of medium-range interceptors, allowing more frequent use against high-volume threats. The system’s mobility enables deployment in dispersed configurations, reducing vulnerability to counter-strikes and increasing coverage flexibility. It complements man-portable systems by providing greater range and sensor capability while remaining less complex than larger air defense systems. The integration of such systems supports a layered defense model where different systems address distinct altitude and range bands. This approach is intended to maintain continuous coverage against diverse aerial threats. The deployment in Ukraine reflects a broader trend toward modular, vehicle-based air defense solutions capable of sustained operation under high operational tempo, such as the Skyranger, the Locust X3, or the Leonidas AGV.
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 strikes Russian Project 23550 combat icebreaker Purga in surprise attack over 1,000 km from war zone
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Ukraine demonstrated its long-range strike capability by damaging a Russian Project 23550 Arktika-class icebreaking patrol ship, identified as the Purga, at the Vyborg shipyard deep inside Russian territory.
The attack, conducted by Ukrainian forces using unmanned systems, damaged a strategic Arctic-capable vessel during a coordinated wave of drone operations targeting military and dual-use infrastructure in the Saint Petersburg region, which is over 1,000 km from the active front. By hitting a vessel in advanced construction for Russia’s FSB Border Guard, the operation directly impacts Russia's future Arctic force projection, undermines shipbuilding timelines, and expands the operational reach of Ukrainian multi-domain warfare into previously secure rear areas.
Read also:Russia commissions new armed icebreaker Ivan Papanin to expand control over Arctic routes
Russia’s approach in the Arctic relies on persistent presence and logistical support, making vessels like the Project 23550 (such as the Purga and the Ivan Papanin) central to its strategy. (Picture source: Ukraine AFU and Russian MoD)
On March 25, 2026, the General Staff of the Armed Forces of Ukraine announced that a Ukrainian strike damaged a Russian Project 23550 icebreaking patrol ship at the Vyborg shipyard, leaving the vessel with a pronounced angle estimated at about 40 degrees and partially submerged alongside another hull. The ship is most commonly identified as the Purga, a unit built for the FSB Border Guard, although some confusion persists with the Dzerzhinsky, which is also under construction at the same facility. This occurred during a coordinated wave of attacks across the Saint Petersburg region that involved dozens of aerial systems, with local authorities reporting up to 56 drones intercepted in the area.
The attack also coincided with strikes on nearby oil infrastructure and coastal defense assets, indicating a synchronized operation targeting both military and dual-use sites. The damage pattern, the absence of visible fire effects, and the rapid loss of stability point might indicate a critical structural impact rather than superficial damage. The physical condition of the Purga, which was in an advanced fitting-out phase, provides important indicators regarding the nature of the strike, as the hull and superstructure show no visible burn marks, blast perforations, or fire damage above the waterline consistent with a drone airstrike. The vessel’s rapid heel suggests that one or more internal compartments filled quickly, shifting the center of gravity and causing loss of buoyancy on one side.
This pattern is consistent with possible damage to intake systems or ballast control mechanisms, which would destabilize the ship’s center of gravity within minutes. While Ukrainian authorities attribute the strike to drones, the observed effects align with underwater explosive charges, unmanned underwater vehicles, or internal sabotage affecting key systems such as Kingston valves, which regulate seawater intake. Russian countermeasures following the incident included the establishment of controlled access zones, interrogation of shipyard personnel, and deployment of anti-sabotage patrols in the harbor, indicating concern over insider involvement or subsurface threats.
The strike also represents one of the first confirmed cases of a Ukrainian attack affecting a Russian warship in the Baltic Sea area, extending the operational depth of the conflict by more than 1,000 kilometers from earlier maritime engagements. The targeted vessel belongs to the Project 23550 Arktika class, which combines icebreaking, patrol, and logistical support functions in a single ship for Arctic operations. These ships measure about 114 meters in length, with a beam between 18 and 20 meters and a displacement ranging from 6,800 to 9,000 tons depending on configuration. It is built to Arc7 standards, enabling it to break ice up to 1.7 meters thick and operate independently in polar regions without escort.
Propulsion is provided by a diesel-electric system composed of multiple generators and electric motors, enabling controlled maneuvering in ice conditions and reducing mechanical stress on propulsion components. The vessel can reach speeds of up to 18 knots, with an operational range close to 10,000 nautical miles and an endurance of up to 70 days. Crew complement is about 60 personnel, with additional accommodation for up to 50 mission specialists or support staff. These features allow these ships, such as the Ivan Papanin, to be deployed in remote regions with limited logistical support.
The onboard systems reflect a balance between law enforcement, patrol duties, logistic support, and limited combat capability, positioning the class between a coast guard unit and a light patrol vessel. The primary armament is a 76 mm AK-176MA naval gun, supported by two 30 mm close-in weapon systems, heavy machine guns, and portable air defense systems for short-range protection. Aviation facilities include a flight deck and hangar capable of operating helicopters such as the Ka-27 or Ka-226, as well as unmanned aerial systems for surveillance and reconnaissance. The Project 23550 Arktika can also carry two Raptor-class high-speed boats and a Project 23321 hovercraft, allowing rapid deployment of personnel and equipment in littoral zones.
A modular design allows installation of containerized missile systems such as Kalibr, enabling the ship to conduct strike missions if required. This flexibility allows the vessel to shift between border enforcement, escort duties, and combat roles without structural modification. Within Russia’s Arctic strategy, vessels of this class are intended to maintain a continuous presence along the Northern Sea Route, which is becoming increasingly valuable due to reduced ice coverage. Their missions include monitoring economic zones, escorting commercial traffic, supporting remote bases, and conducting search and rescue operations in areas lacking infrastructure.
Russia has prioritized the expansion of its ice-capable fleet to ensure year-round access to Arctic waters, which are becoming increasingly navigable due to climate change. The integration of patrol and combat capabilities into icebreakers reflects an approach focused on dual-use assets that can perform both civilian and military functions to sustain these activities. These ships reduce the need to deploy larger naval combatants in harsh environments while maintaining operational control. Damage to a vessel under construction directly affects Russia's future deployment capacity and flexibility in Arctic operations.
The broader Arctic environment is evolving into a competitive zone driven by access to hydrocarbons, mineral resources, and new maritime corridors linking Europe and Asia. Russia has invested heavily in infrastructure, including ports, airfields, and radar systems, to support its presence across the region. At the same time, the United States, Canada, and Nordic countries are expanding their own icebreaker fleets and industrial capacity, including shipyard modernization and new vessel construction programs. Agreements such as the ICE Pact signed in July 2024 have accelerated cooperation in icebreaker production among Western states.
Russia’s approach relies on persistent presence, submarine deployment, and logistical support rather than high-intensity naval engagements, making vessels like the Project 23550 central to its strategy. The strike at Vyborg demonstrates that these assets, even when located deep within national territory, are now exposed to Ukraine's long-range attack capabilities. The industrial consequences of the strike on the Purga, therefore, are significant given existing delays in Russian shipbuilding programs and the stage of completion of the affected vessel.
The Purga was laid down on July 25, 2020, and launched on October 7, 2022, with delivery initially scheduled for 2024 but already subject to delays. Damage involving internal flooding and structural imbalance can require extensive reconstruction, including replacement of electrical systems, propulsion components, and hull sections. The vessel’s collapse against the nearby Vice-Admiral Burilichev, a Project 22011 oceanographic ship equipped with deep-diving systems capable of operating at depths exceeding 6,000 meters, may have damaged sensitive equipment mounted on the two ships' upper structures. This could introduce additional repair requirements and potential delays for a ship associated with seabed operations. The combined impact of the strike affects both production timelines and the availability of specialized capabilities.
The need for salvage operations and structural assessment, which could result in a total loss depending on hull integrity, further increases pressure on Russia's shipyard resources. The Ukrainian strike also illustrates a shift in maritime conflict, potentially as important as the Taranto Raid in 1940 or Pearl Harbor, as unmanned systems are increasingly used to target high-value assets at significant distances from active combat zones. Since 2022, between 35 and 40 Russian naval vessels have been damaged or destroyed by Ukraine, with operations extending from the Black Sea to the Baltic region.
The cost differential between low-cost drones and vessels sometimes valued at more than €200 million creates a structural imbalance favoring offensive systems. Targeting shipyards and vessels under construction also disrupts a country's industrial output and delays force generation rather than only degrading operational units. Defensive requirements now include continuous surveillance, layered air defense, and counter-sabotage measures, including protection against underwater threats. The integration of aerial, surface, and subsurface attack methods indicates an approach toward multi-domain operations to bypass conventional air defenses.
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's fiber-optic drone shoots down Russian Ka-52 attack helicopter in flight for the first time
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Ukrainian forces used a fiber-optic FPV drone from the General Chereshnya Optix series to shoot down a Russian Ka-52 attack helicopter in flight over eastern Ukraine, marking a first in this conflict and demonstrating a new low-altitude air denial capability.
The strike was conducted by Ukraine’s 59th Assault Brigade near Nadiivka in the Donetsk region, highlighting the growing ability of small units to engage high-value aerial platforms with precision-guided drones. The engagement underscores the operational impact of fiber-optic drone technology in overcoming electronic warfare constraints, reinforcing Ukraine’s evolving capacity to challenge rotary-wing operations and reshape the tactical use of attack helicopters near the front line.
Read also:Did a small Ukrainian FPV drone manage to hit Russian Mi-28 Havoc attack helicopter in mid-flight?
The Ukrainian drone used to shoot down the Russian Ka-52 attack helicopter in flight was a fiber-optic FPV system produced by General Chereshnya, specifically from the OPTIX series that was officially certified in late December 2025. (Picture source: Telegram/USF Army)
On March 20, 2026, Ukrainian drone operators from the 59th Assault Brigade destroyed a Russian Ka-52 attack helicopter flying in the Pokrovsk direction (Donetsk region) using a fiber-optic FPV drone, marking the first confirmed case in this war of such a helicopter being neutralized by this method. The engagement occurred near Nadiivka, beyond five kilometers from the front line, during active Russian aviation operations. The helicopter belonged to the 17th Army Aviation Brigade of the Central Military District and carried a two-man crew born in 1997 and 1999. The strike, therefore, reflects an evolution in drone employment from ground attacks toward aerial engagements.
It also demonstrates that the close integration of reconnaissance, tracking, and strike functions within small tactical units could lead to one of the rare instances of a modern attack helicopter being engaged during active operations by a drone. Moreover, the downing of a Ka-52 is not an isolated occurrence but part of a sequence of increasingly complex drone engagements against Russian helicopters since 2024. Tactically, the significance of the Ka-52 downing lies in the combination of method, target type, and preparation cycle. The preparation began with Ukrainian operators identifying two helicopters operating along a known flight corridor and attempting an initial intercept that failed due to distance constraints.
As the second helicopter approached within range, a fiber-optic FPV drone closed the gap and struck the Ka-52 during low-altitude maneuvering. The impact did not immediately destroy the helicopter but caused sufficient damage to force an emergency landing further along its flight path. After landing, the crew exited the aircraft and moved several hundred meters toward a trench, indicating they managed to survive after impact. However, follow-on drones from the 1st Battalion of the 414th Brigade tracked and struck the crew (helicopter commander Captain Timur Gimranov and navigator Lieutenant Ilya Kuzhuyev) on the ground, completing the engagement. The sequence, therefore, consisted of an initial mobility kill followed by a terminal strike phase.
This pattern differs from conventional air defense, where destruction is expected at the point of intercept. This attack, instead, relied on sequential and coordinated actions to ensure target neutralization. The system used was a fiber-optic FPV drone from the General Chereshnya Optix series, officially certified in December 2025 and designed to operate with physical cable control rather than radio signals. Available configurations include 10-, 13-, and 15-inch frames paired with spool lengths enabling ranges from 15 to 35 kilometers, allowing flexible deployment depending on mission geometry. The fiber-optic link eliminates susceptibility to electronic warfare interference, ensuring continuous operator control and stable video transmission during the engagement.
This characteristic is now critical in Ukraine, where radio-frequency jamming is widely employed against classic FPV drones, particularly along active front sectors. The fiber enables precise terminal guidance against moving targets, including aircraft flying at low altitude, while the Optix's design prioritizes control reliability over speed or payload compared to conventional FPV drones. This makes the drones from General Chereshnya (also known as General Cherry) suitable for engagements requiring sustained tracking rather than rapid strike execution. Preparation for the operation lasted approximately one and a half months and involved systematic tracking of Russian helicopter activity in the sector.
Operators collected data on flight routes, altitude patterns, and timing to identify predictable corridors used during missions. Interception points were selected where attack helicopters would pass within the operational range of the drone while maintaining manageable engagement geometry. This process required coordination between reconnaissance elements and strike teams to ensure correct positioning and timing. The duration of preparation reflects the difficulty of engaging such a maneuvering aerial target when compared to static ground objectives. It also indicates that such operations are not routine but require deliberate planning cycles, as they require persistence and predictability rather than reactive targeting. However, this attack model increases the probability of success against high-value and mobile targets such as the Ka-52.
The Russian Kamov Ka-52 is a reconnaissance and attack helicopter designed to engage armored vehicles, personnel, and aerial threats while coordinating other aviation units during operations. It is equipped with a 30 mm cannon, anti-tank guided missiles, unguided rockets, and air-to-air missiles, and can reach speeds of up to 310 km/h with a range of about 550 km and operational altitude up to 5.5 km. The Kamov Ka-52 incorporates armored protection and a dual-seat cockpit, along with an ejection system that requires rotor blade separation before activation. The estimated unit cost is about $16 million, placing it among the more expensive assets in Russian army aviation. Its role in reconnaissance and coordination increases its operational value beyond direct strike capability. Despite these features, the helicopter remains vulnerable when operating at low altitude, particularly in predictable flight patterns near the front line.
The engagement exploited these conditions rather than attempting a high-altitude intercept. Previous engagements illustrate a Ukrainian progression in drone use against Russian helicopters from 2024 onward, initially targeting helicopters during landing or on the ground. In August 2024, a Ukrainian FPV drone reportedly struck a Mi-28 helicopter in the Kursk region by damaging its rear rotor during operations. On September 29, 2025, the same 59th Brigade shot down a Mi-8 helicopter in the Donetsk region using an FPV drone, marking one of the first confirmed destructions of a helicopter by this method. In November 2025, a long-range FP-1 drone was reported to have destroyed another Mi-8 over Russian territory, extending engagement distance to nearly 190 kilometers from the front line.
Additional cases include the destruction of a Mi-17 in Myanmar using similar systems and a Ka-27 destroyed on the ground by a drone launched from a maritime platform. These incidents show a transition from opportunistic strikes to planned engagements against moving targets. The March 2026 Ka-52 case represents a further step in this progression. The tactical implications of this attack could center on the vulnerability of helicopters operating below 200 to 300 meters and within 5 to 10 kilometers of the front line, where drones can be deployed effectively. Helicopters rely on low-altitude flight to avoid radar detection and reduce exposure to conventional air defense systems, but this places them within the engagement envelope of FPV drones.
The cost disparity is significant, with FPV drones costing a few thousand dollars compared to a $16 million helicopter, creating an unfavorable exchange ratio. Even a low probability of successful engagement can impose constraints on helicopter operations due to the potential loss of high-value assets and trained crews. This affects mission planning, reducing hover time and limiting exposure in predictable corridors. The threat also complicates coordination between helicopters operating in groups. Also, it introduces a persistent risk layer that cannot be fully mitigated by traditional defenses, a fact that can also have a psychological impact. At the strategic level, this attack reflects a broader shift in the structure of low-altitude airspace, where distributed drone systems create localized denial zones rather than centralized air defense coverage.
Ukraine’s expansion of drone production, involving hundreds of companies and reaching large-scale output, supports the sustained deployment of such systems across multiple sectors. These capabilities do not replace conventional air power but impose operational constraints that reduce the helicopter's effectiveness in specific environments. The requirement for extended preparation and favorable conditions limits the frequency of such engagements, but the scalability of drone production offsets this limitation over time. Both sides are likely to adapt, with potential changes including altered flight profiles, increased standoff distances, and development of counter-drone measures. The long-term effect is a gradual redistribution of risk in low-altitude operations, as more and more unmanned systems become integrated into standard combat practices.
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 deploys Swedish ASC 890 early warning aircraft for first time against Russian missile attacks
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Ukraine seems to have publicly deployed the Swedish Saab 340 AEW&C (ASC 890) airborne early warning and control aircraft for the first time in operational conditions, marking a significant enhancement in its air surveillance capability against Russian missile threats.
The aircraft, supplied by Sweden, was observed flying over Ukrainian airspace, demonstrating Kyiv’s new ability to detect and track low-altitude cruise missiles and drones at extended ranges. The activity, revealed on March 20, 2026, through footage shared by WarTranslated, suggests the Saab 340 AEW&C has entered active service following its transfer announced in May 2024, strengthening Ukraine’s early warning network and improving real-time coordination in response to high-volume Russian strike operations.
The Saab 340 AEW&C, also known as ASC 890, is capable of tracking up to 1,000 airborne targets and 500 surface targets simultaneously, and its radar’s lookdown capability allows it to detect low-flying threats that would otherwise be obscured by terrain. (Picture source: NATO and X/WarTranslated)
On March 20, 2026, WarTranslated shared a video showing a Saab 340 AEW&C airborne early warning and control aircraft flying over Ukraine for the first time, indicating the likely operational introduction of an important capability within the Ukrainian Air Force. The aircraft is identifiable by its elongated “balance beam” radar mounted above the fuselage, consistent with the Erieye system used on the S100D Argus or ASC 890 configuration. The footage shows level daytime flight, with Ukrainian language audible in the background, suggesting operation within national airspace, although the precise location and timing remain undetermined.
This event happened nearly two years after Sweden announced the transfer of two such aircraft to Ukraine on May 29, 2024, under a military aid package valued at $1.25 billion. The emergence of the video aligns with the expected schedule of approximately one year required for crew training and infrastructure preparation. Prior to this footage, no confirmed imagery had shown these aircraft in Ukrainian service, despite earlier indications of activity. Flight activity linked to this airborne early warning and control aircraft was suggested as early as April 2025, when an aircraft using the callsign WELCOME conducted repeated circuits over the Lviv region in western Ukraine.
Earlier movements using the same callsign were observed near Polish and Hungarian airspace, indicating a possible sequence of post-delivery acceptance flights, calibration sorties, or cross-border repositioning. The geographic pattern suggests initial operations concentrated in western Ukraine, an area less exposed to Russian long-range air defense systems and fighter patrols. Transponder data in such cases remains inherently uncertain due to the possibility of manipulation or masking, limiting the ability to confirm identity with certainty. Nevertheless, the consistency of the callsign and flight patterns supports the hypothesis that the Saab 340 AEW&C had entered at least limited operational use way before this visual confirmation.
The absence of earlier imagery is consistent with deliberate efforts to conceal high-value airborne assets, a tactic consistent with earlier Ukrainian operational practices. The Saab 340 AEW&C, also known as S 100B Argus or ASC 890, is derived from the Saab 340 twin-engine turboprop regional airliner. Powered by two General Electric CT7-9B engines, each producing 1,870 horsepower, the ASC 890 has an operational endurance exceeding five hours and a service ceiling near 25,000 feet. The aircraft measures 20.57 meters in length with a wingspan of 21.44 meters and a maximum takeoff weight of approximately 13,155 kilograms.
Its primary sensor, the Erieye radar, is an active electronically scanned array mounted in a fixed dorsal structure, providing lateral coverage of roughly 120 degrees on each side of the aircraft. This configuration creates coverage gaps directly ahead and behind, but reduces drag compared to rotating dome systems. Detection range for aerial and maritime targets extends to roughly 280 miles under operational conditions, with some estimates reaching 300 to 400 kilometers depending on target profile and environment. The system is capable of tracking up to 1,000 airborne and 500 surface targets simultaneously, significantly exceeding the capacities of most ground-based radars deployed within Ukraine.
A key operational advantage of the Erieye system is its lookdown capability, which allows the detection of low-altitude threats that evade ground-based radars due to terrain masking, a critical factor given the nature of Russian strike operations. In 2025 alone, Russian forces launched over 100,000 drones of various types and between 1,900 and nearly 2,400 missiles against Ukraine, with large-scale strikes exceeding 70 to 100 missiles each. These threats typically operate at low altitude and present small radar cross sections, and, by operating at altitude like the E-7A Wedgetail, the Saab 340 extends the radar horizon and enables earlier detection of such threats, increasing available reaction time for interceptors.
The system also supports maritime surveillance, extending coverage over the Black Sea and enabling tracking of surface vessels. In addition to air surveillance, later configurations of the Erieye include synthetic aperture radar and ground moving target indication modes, allowing detection of ground movements and detailed mapping, although the presence of these features on Ukrainian aircraft remains unconfirmed. The Saab 340 AEW&C also functions as an airborne command and control node, operated by a mission crew including a mission control officer, a combat control operator, and a surveillance operator. It processes radar data in real time and distributes it to intercepting aircraft and ground-based systems, enabling coordinated responses across multiple sectors.
Ukraine’s interception strategy relies heavily on fighter jets, including F-16 and Mirage 2000 equipped with missiles such as AIM-9 Sidewinder and R550 Magic. The Saab 340 allows earlier detection and prioritization of incoming threats, improving the allocation of interceptors and reducing reaction time. During large-scale attack waves involving mixed missile and drone salvos, prioritization becomes critical due to limited interceptor availability. The effectiveness of this integration depends in part on connectivity through systems such as the NATO standard Link 16 datalink, which enables real-time sharing of targeting data across air and ground units.
Compatibility with Western-supplied fighters and air defense systems would allow the Saab 340 to function as part of a networked air defense architecture. However, reports from late 2024 indicated that Link 16 functionality on Ukrainian F-16 aircraft may have been removed or disabled due to concerns regarding potential capture of sensitive technology. This limitation would restrict the ability to transmit a full real-time air picture directly to those fighters, reducing the efficiency of coordinated engagements. As of March 2025, delivery of the aircraft remained on schedule and was linked to modifications intended to ensure compatibility with F-16 systems, suggesting ongoing efforts to restore or adapt data-sharing capabilities.
Even in the absence of full integration, the aircraft retains value as a standalone surveillance and command asset. Its ability to communicate through alternative channels still provides a substantial improvement over previous capabilities. However, Russian forces possess long-range air-to-air missiles such as the R-37M, carried by Su-35S and Su-30SM fighters, with engagement ranges exceeding 300 kilometers, posing a direct threat if one of the two only ASC 890 AEW&Cs operates near contested airspace. As a result, their deployment is likely concentrated in western Ukraine, where distance from frontline areas reduces exposure to these threats. Ukrainian forces are expected to relocate the aircraft between airfields to complicate targeting, a practice already used for other critical assets, including F-16 fighters.
Fixed basing would increase vulnerability to cruise missile strikes such as those conducted with Kh-101 and Kh-69 systems, which have ranges exceeding 2,500 kilometers. With only two aircraft, continuous airborne coverage is not feasible, requiring rotational operations and maintaining one aircraft on ground alert for rapid response. The introduction of the Saab 340 AEW&C alters the structure of Ukraine’s air defense by adding an internal airborne surveillance and command capability that was previously absent. Prior to this transfer, radar coverage for Ukraine relied significantly on external support from NATO aircraft operating outside Ukrainian airspace, constrained by distance and line-of-sight limitations.
The Saab 340 AEW&C now enables direct monitoring of Ukrainian airspace, improving detection timelines and reducing dependence on external assets. This shift allows for more immediate decision-making and coordination during missile and drone attacks, which have occurred with high frequency across the country. The aircraft also creates the foundation for future integration with additional systems, including potential acquisition of Saab Gripen fighters, which would be compatible with the Erieye system and designed for networked operations. While the limited number of aircraft constrains overall coverage, their impact lies in enhancing coordination and response efficiency within existing air defense structures. The extent of their operational effect will depend on survivability, integration, and sustained availability over time.
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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Russia deploys new TOS-3 Drakon thermobaric rocket system in Ukraine against fortified positions
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On February 4, 2026, the Russian Ministry of Defense released a second official footage showing the TOS-3 Drakon heavy flamethrower system conducting combat operations in Ukraine.
On February 4, 2026, the Russian Ministry of Defense released official footage showing the TOS-3 Drakon heavy flamethrower system conducting combat operations in Ukraine. The ministry identified the crew as belonging to the 29th Separate Radiation, Chemical, and Biological Defense Brigade of the Center Group of Forces and stated that the system destroyed a Ukrainian stronghold in the Krasnoarmeysk direction.
Follow Army Recognition on Google News at this linkThe TOS-3 launcher pod is fitted with protective mesh screening, like the TOS-2, Volnorez electronic warfare systems, and possibly a digital fire control and communications equipment to support extended engagement distances. (Picture source: Russian MoD)
The TOS (Russian acronym for “Tyazhyolaya Ognemyotnaya Sistema,” meaning “Heavy Flamethrower System”) designates a family of 220 mm thermobaric rocket launchers used by Russia, which began with the Soviet-era TOS-1 Buratino, developed between 1971 and 1979 to attack fortified positions and light armour. The TOS-1 was introduced in 1988 and was mounted on a tracked T-72 tank chassis, with 30 launch tubes in its original configuration and a crew of three; it carried thermobaric warheads for area blast effects. The launcher’s rockets had a 0.5 km to 3 km range in early models, and the vehicle weighed about 45.3 tonnes, had an 840 hp diesel engine, a maximum road speed of 60 km/h, and a range of 550 km without auxiliary tanks. The TOS-1 was deployed by the Russian NBC Protection Troops rather than conventional artillery units, and initial combat tests took place in 1988-1989 in the Panjshir Valley during the Soviet-Afghan war.
The TOS-1A Solntsepyok, developed as the modernized variant of the original system, entered Russian service in 2001 with a reduced 24-tube launcher arranged in three rows of eight, mounted on a T-72, T-80, or T-90 tank chassis with characteristics similar to those of the TOS-1. The TOS-1A’s 220 mm rockets had a firing range of up to 6 000 m using the MO.1.01.04M rocket and up to 10 000 m with the MO.1.01.04M2 upgrade, and the launcher could fire multiple rockets in rapid succession. The vehicle’s design included a reinforced hull for crew protection, a fire-control system with a ballistic computer, observation equipment and a laser rangefinder, and smoke-grenade launchers for obscuration; it operated alongside main battle tanks and infantry. The TOS-1A has been used in multiple conflicts, including the Russo-Ukrainian war, and variants have been produced for export to other countries.
Return of combat experience later resulted in the development of the TOS-2 Tosochka in 2018, which shifted from a tank base to a wheeled 6x6 UralAZ-63704-0010 truck chassis, with production starting in 2021. The TOS-2 carries 18 220 mm rockets and is equipped with an integrated loading crane, updated fire-control systems, satellite navigation and communication equipment, and the TBS-M3 rocket with a stated range of at least 10 km and, in some references, reaching 20 km; it also retains thermobaric warhead employment. The wheeled chassis provided higher road speed and longer operational range compared with tracked predecessors, and the system was first publicly displayed in 2020 and entered service in early 2021; it has been observed deployed in Ukraine.
The TOS-3, often referred to as “Dragon” or Drakon, represents a further evolutionary step, combining features from earlier variants with enhanced missile range ambitions and additional defensive systems. The first public indication of the TOS-3's existence emerged in mid-January 2024 when Omsktransmash applied to register the “TOS-3 Drakon” trademark and logo (a tracked chassis with a 15-tube launcher arranged in three rows of five), securing rights in early February 2024 across categories including military vehicles and artillery systems. On April 8, 2024, Bekhan Ozdoev of Rostec confirmed that the project had progressed beyond development and that a prototype had been constructed, specifying the use of a tracked chassis and a new launcher for increased-range ammunition. Then, in June 2024, the TOS-3 ‘Dragon’ was publicly unveiled during an official event in Russia’s southwest Saratov region. In November 22, 2025, the first combat footage of the TOS-3 in Ukraine appeared, already linked to the 29th Separate NBC Protection Brigade.
Available information indicates that the TOS-3 uses a tracked armored chassis similar to the TOS-1A (speculation focuses on possible use of T-72 or T-80 chassis) but with a lighter launcher unit carrying 15 220 mm rockets, which allows each rocket to carry increased propellant for enhanced range. A fully loaded TOS-1A weighs 46 tonnes with 24 rockets, and there are indications that designers may target 40 to 42 tonnes for the TOS-3 in combat configuration to improve mobility and survivability. The launcher pod on TOS-3 is fitted with protective mesh screening, like the TOS-2, Volnorez electronic warfare systems, and possibly a digital fire control and communications equipment to support extended engagement distances. These measures were likely adopted after FPV drone-related losses of TOS systems in Ukraine.
Range progression across the TOS family shows incremental increases. The original TOS-1 rocket had a minimum effective range of about 0.5 km and a maximum of about 3 km, later extended by MO.1.01.04M rockets to about 6 km and by MO.1.01.04M2 to around 10 km for TOS-1A. The TBS-M3 rocket, introduced with the TOS-2, has a stated range of at least 10 to 12 km, while some references cite engagement distances up to 20 km depending on configuration; these rockets are longer and heavier to achieve greater range. Early reports on TOS-3 estimate its new or improved 220 mm rockets can engage targets at 15 km or beyond (some higher estimates reaching 18 km or 24 km), although formal official figures remain unpublished; the smaller number of tubes on TOS-3 suggests a larger rocket size with increased propellant capacity to achieve such extended flight.
Thermobaric munitions used by the TOS systems function by dispersing an aerosol cloud of fine fuel particles in the target area and then igniting it, producing a high-temperature, high-pressure blast wave and a sustained overpressure effect that relies on atmospheric oxygen to amplify blast duration and effect. Thermobaric warheads are also designed to generate sustained pressure and heat over wider areas than conventional condensed explosives of similar mass, to increase the damage done to fortifications, enclosed structures, light armored vehicles, and personnel through shockwave and oxygen depletion. Earlier operational procedures required crews to approach within line of sight, determine range using a laser rangefinder, calculate elevation through a ballistic computer, and fire salvos from short distances, while later variants incorporated digital fire control upgrades and integration with reconnaissance drones to reduce reaction time.
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 starts testing new Mac Owl 4x4 armored personnel carrier under combat conditions
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The new Mac Owl armored personnel carrier had entered testing with units of the Ukrainian Army, shortly after its public unveiling on January 16, 2026.
On February 1, 2026, Dimko Zhluktenko reported that the Mac Owl armored personnel carrier had entered testing with units of the Ukrainian Army following its public presentation on January 16, 2026. The vehicle, developed by the Ukrainian company Mac Hub, is being evaluated under operational conditions characterized by mine threats, improvised explosive devices, artillery fragments, and direct fire.
Follow Army Recognition on Google News at this linkThe Mac Owl can ford water obstacles up to 1,200 mm deep without preparation, cross ditches up to 800 mm wide, climb gradients of 60 percent, and operate on lateral slopes of up to 21 percent. (Picture source: X/Dimko Zhluktenko)
The APC, produced by the Ukrainian company Mac Hub, will be tested under conditions relevant to ongoing high-intensity operations, where armored personnel carriers face frequent exposure to mines, improvised explosive devices, artillery fragments, and direct fire, often with limited freedom of maneuver. According to the manufacturer, development of the vehicle lasted more than one year and included consultations with representatives from Ukraine’s defense intelligence to align design choices with observed battlefield requirements. Mac Hub also stated that Mac Owl is Ukraine’s first armored vehicle certified to STANAG 4569 Levels 4a and 4b for ballistic and mine protection.
The Mac Owl is built around a monocoque capsule hull intended to maximize protection against mines and explosive threats while preserving internal volume and ground clearance. Mine resistance is rated at STANAG 4a and 4b, corresponding to resistance against the detonation of 10 kg of TNT under any wheel and 10 kg beneath the hull, exceeding the level offered by many armored vehicles typically rated at STANAG 3a and 3b. The lower hull incorporates a V-shaped structure, while the hull's thickness is specified as 16 mm for the side and rear walls, 15 mm for the bottom, and 8 mm for the roof. Armored glass thickness is specified at 90 mm by 120 mm. The armor layout uses a two-layer structure consisting of an external armored steel layer intended to stop direct fire and an internal polymer layer designed to absorb fragments and resist prolonged thermal exposure.
Ballistic protection for both the crew and engine compartments is rated at STANAG 4569 Level 4a, and the vehicle is also rated to withstand a side explosion equivalent to 50 kg of TNT. Protection can be increased through the addition of external ceramic armor elements, which the manufacturer states can raise resistance to 14.5 mm caliber threats when required. Survivability measures extend beyond passive armor, as the Mac Owl integrates a 360-degree situational awareness system offering the automatic detection of obstacles and potential targets around the vehicle. An onboard electronic warfare suite is included to counter electronically triggered or guided threats.
Fire safety is addressed through an automatic fire detection and suppression system covering both the crew compartment and the engine bay. The vehicle also incorporates an independent liquid cooling system intended to maintain operational capability in high ambient temperatures. Crew seating uses lightweight military seats equipped with integrated four-point seat belts compliant with EEC UN standards, aimed at reducing injury from blast effects and sudden deceleration. Propulsion is provided by a 450 hp diesel engine coupled to a six-speed automatic transmission driving a 4x4 layout. Curb mass is specified at 15 tons, with a payload capacity of 2 tons. The manufacturer has not disclosed the external length, width, or height dimensions of the Mac Owl, but the wheelbase measures 3,300 mm, for a turning radius of less than 18 m.
Tires are specified as 16.00R20 all-terrain types, and differential locks are fitted at the front, rear, and central positions. Maximum speed is stated as up to 100 km/h, depending on terrain and armor configuration, for an operational range of 700 km in mixed conditions, or 700 km when cruising at 60 km/h. The Mac Owl can ford water obstacles up to 1,200 mm deep without preparation, cross ditches up to 800 mm wide, climb gradients of 60 percent, and operate on lateral slopes of up to 21 percent. Acceleration from 0 to 60 km/h is specified as under 15 seconds, and acceleration from 0 to 80 km/h as under 30 seconds. Braking performance from 60 to 0 km/h is specified as 3 seconds within a distance of less than 30 m, with compliance to ECE-R13 requirements.
Suspension is hydropneumatic and independent, offering 300 mm of wheel travel through compact A-shaped control arms and reinforced components. Steering uses hydraulic power assistance, and constant-speed external front drive shafts on the steering axis are intended to maintain smooth wheel movement without feedback, even at full steering lock. The braking system is supplied by Knorr-Bremse and consists of pneumatic disc brakes with an integrated anti-lock braking system, with a rear parking brake, and pneumatic couplings for towing. Maintenance considerations are central to the Mac Owl’s design, with the monocoque hull acting as a single integrated capsule to which major systems are directly mounted. The engine and gearbox form one replaceable module, while the running gear and other subsystems are organized as separate modules.
In case of failure or damage, individual modules can be removed and replaced in field conditions rather than repaired in place, reducing downtime and limiting the need for specialized tools or advanced technical training. Crew configuration is specified as two crew members plus six or eight passengers, depending on internal arrangement. The Mac Owl supports both left-hand and right-hand drive layouts, with adjustable driver and co-driver seats. Rear seating can be arranged facing inward or outward. Access points include a hydraulically operated rear door with an exit hatch and explosive locks, two roof hatches, and two side doors for the driver and co-driver. Internal systems are configured to support sustained operations. The electrical system operates at 24 V and includes a 260 A alternator, main and auxiliary batteries, and internal power outlets providing 24 V, 12 V, and 5 V, including multiple cigarette lighter and USB sockets.
External power outlets and NATO-standard 24 V sockets are fitted at the front and rear. Lighting equipment includes high beams, low beams, daytime running lights, side marker lights, fog lights, and rear LED white lights for crew use. A roof-mounted rear-view camera provides low-light rear visibility to the driver via the instrument panel. Climate control includes heating and air conditioning rated at 12 kV cooling and heating capacity, alongside insulation and noise suppression. The current armored fighting configuration supports a user-defined turret option, with the baseline configuration designed for a Browning machine gun. Operational flexibility includes the ability to convert the Mac Owl into a medical evacuation configuration within a few hours.
This involves removing the turret, installing a roof cover, replacing troop seats with stretchers, and adding a central medic seat. Gas-filled shock absorbers are intended to improve ride smoothness during casualty evacuation. Standard equipment includes a NATO-standard towing device, two external 20-liter water containers, onboard tools, firing ports, run-flat inserts, centralized tire inflation, anti-lock braking, HVAC, and fire suppression systems. Optional equipment includes window heating with anti-icing elements, infrared lighting, additional liquid storage via two 20-liter canisters, and an 8-ton winch mountable on either bumper, as well as additional surveillance and notification systems. Mac Hub stated that the Mac Owl program was implemented in cooperation with Paramount Group Europe, which can explain its resemblance to the Mbombe 4, without being able to confirm whether it is a licensed production or a revised and improved version to better meet Ukraine's needs.
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 downs first Iranian Shahed-107 drone with high-speed Sting interceptor
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On January 24, 2026, Ukraine confirmed the first recorded interception of an Iranian-made Shahed-107 loitering munition by a Ukrainian Sting interceptor drone during an extended air defense operation.
On January 24, 2026, Wild Hornets confirmed the first recorded interception of an Iranian-made Shahed-107 loitering munition by a Ukrainian Sting interceptor drone during a six-hour air defense operation conducted by the Sky Wars unit of the 47th Mechanized Brigade Magura. The interception provides additional confirmation of the Sting’s operational success against long-range attack UAVs of Iranian origin employed by Russian forces in Ukraine.
Follow Army Recognition on Google News at this linkRussia uses the Shahed-107 primarily to strike targets 100 to 300 kilometers behind the Ukrainian front line, making it suitable for attacks on logistics hubs, fuel depots, command posts, air defense systems, and infrastructure nodes that are costly to defend continuously. (Picture source: Wild Hornets and Iranian MoD)
The Sting is a Ukrainian quadcopter drone designed specifically to intercept and destroy incoming Shahed drones and similar UAVs, through physical impact or proximity detonation. It entered operational use in 2024 and has been employed continuously through 2025 and early 2026 by dedicated drone-hunting teams, using FPV control with thermal imaging for night and low-visibility operations. Multiple tests and demonstrations have shown sustained flight speeds around 300 to 315 km/h, with some claims placing the upper limit closer to 350 km/h in short bursts, allowing it to pursue and engage propeller-driven attack drones and even faster jet-powered variants within altitudes of up to about 3,000 meters. Designed for rapid deployment from mobile positions, the Sting can be recovered if no engagement occurs and redeployed quickly, for an estimated cost of about $2,000 to $2,500 per interceptor.
First employed against Ukraine in 2025, the Shahed-107 is a high-wing unmanned aerial vehicle with an X-shaped tail assembly intended to stabilize flight over extended distances, and its wingspan is estimated as approximately three meters. Examination of recovered components revealed a fuselage constructed from carbon fiber combined with aluminum structural elements, a configuration aimed at reducing weight while maintaining sufficient structural strength. In the examined sample, a cumulative high-explosive fragmentation warhead weighing 15 kg was identified, a payload assessed as suitable for engaging fortified positions and critical infrastructure rather than exclusively soft targets.
Propulsion is provided by a Chinese-made DLE 111 two-stroke gasoline engine paired with a fuel tank holding 28 liters, resulting in an operational range stated as about 300 kilometers for the configuration assessed by Ukrainian specialists. Comparable small gasoline engines have been identified across several other unmanned systems used by Russian forces, including the Gerbera, BM-35, Parodiya, and Delta drones, indicating a shared component supply pattern. The navigation chain combines inertial navigation with satellite guidance, supported by a four-element antenna intended to reduce the effectiveness of some electronic countermeasures rather than fully negate them.
Chronologically, the Shahed-107 was first publicly revealed by Iran’s Islamic Revolutionary Guard Corps (IRGC) in June 2025 during a period of heightened confrontation between Iran and Israel. Following this unveiling, the drone soon appeared in Russian service and was subsequently employed against Ukrainian territory, situating it within the broader framework of Iran-Russia cooperation in unmanned strike capabilities. Additional available information links earlier mentions of the Shahed-107 to January 2024, including references to potential transfers valued at over $2 million and adaptations intended to seek out high-value targets such as Western-origin multiple launch rocket systems used by Ukrainian forces.
Alongside the three-meter wingspan and 300-kilometer range configuration, other pieces of information about the Shahed-107 include claims of ranges reaching up to 1,500 kilometers, fuselage lengths of about 2.5 meters, and visual features such as rectangular wings with control surfaces and a pitot-tube-like airspeed sensor. Separate characterizations reference a smaller fixed-wing loitering munition measuring about 1.6 meters in length with a 2.5-meter wingspan, an 8 to 9 kg warhead, a cruise speed of about 120 km/h, operational altitude up to 3,000 meters, and launch methods ranging from catapult systems to rail or assisted runway takeoff using detachable gear.
Operationally, the interception of the Shahed-107 is part of an increasing combat record for the Sting interceptor. By late 2025, Wild Hornets and Ukrainian military units reported that Sting interceptors had destroyed well over 1,000 hostile UAVs, including Shahed/Geran variants and decoy drones. In December 2025, the Sting was also credited with intercepting a jet-powered Geran-3, which is based on the Iranian Shahed-238, demonstrating that the interceptor can engage faster, more challenging targets than earlier propeller-driven drones. Within Ukraine’s broader interceptor drone program, this interceptor now represents one of the most mature and widely fielded drones, forming a practical template for how low-cost aerial interceptors are being integrated into modern air defense architectures.
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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Russia Deploys the New Geran-5 Jet Strike Drone in Ukraine in Its First Combat Use
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Ukrainian military intelligence says Russia has conducted the first combat use of a new jet-powered long-range strike drone known as Geran-5 during air attacks in January 2026. The system signals a shift toward faster, heavier UAVs derived from Iranian design concepts, complicating Ukraine’s air defense and electronic warfare response.
Ukrainian intelligence officials say Russian forces have begun combat operations with a previously unseen long-range strike drone, marking a notable evolution in Moscow’s unmanned attack arsenal. According to the Main Intelligence Directorate of Ukraine, the jet-powered UAV designated Geran-5 was employed during combined air attacks in mid-January, with early analysis suggesting foreign design influence and expanded strike capabilities compared to earlier Geran variants.
Follow Army Recognition on Google News at this linkRussia's Geran-5 is a jet-powered long-range strike drone assessed by Ukrainian intelligence as a derivative of Iran's Karrar UAV, featuring a conventionnal fixed-wing layout, an estimated 1,000 km range, a 90 kg warhead, jam-resistant satellite navigation, and potential options for air launch from Su-25 aircraft and experimental carriage of short-range air-to-air missiles (Picture source: Open source).
HUR describes Geran-5 as a relatively large, fixed-wing vehicle about 6 meters long with a wingspan up to 5.5 meters, carrying a warhead of roughly 90 kg and advertised for a strike range of around 1,000 km. Unlike the earlier Geran-2 family associated with Iranian Shahed-style flying-wing layouts, the new drone uses a conventional aerodynamic configuration, a change that typically supports higher dash speed, better high-altitude handling, and a more forgiving integration path for external stores or sensors. HUR also stresses that many subsystems remain unified with other Geran models, indicating an evolutionary design built for scalable production rather than a one-off prototype.
At the heart of that evolution is propulsion: the agency identifies a Telefly turbojet similar to the powerplant used on Geran-3, but with greater thrust, aligning with the airframe’s larger dimensions and heavier payload class. Telefly engines are Chinese-manufactured and have appeared on other Russian jet UAVs, reportedly obtainable on the civilian market, which helps explain how Russia continues to field “new” drones despite sanctions pressure. In parallel, the electronic architecture described by HUR is familiar: a 12-channel Kometa satellite navigation unit, a tracker built around a Raspberry Pi-type microcomputer, and 3G and 4G modems. Kometa is assessed as a specialised navigation module designed to resist jamming, a critical attribute given Ukraine’s heavy reliance on electronic warfare against long-range drones.
Geran-5 appears tailored for the same combined-strike playbook Russia has refined since 2022, but with a sharper edge. A jet-powered drone compresses the defender’s timeline, forcing faster detection, classification, and engagement. Gun-based mobile fire groups, a backbone of Ukraine’s air defense, have fewer seconds to react. HUR’s note that Russia is exploring airborne launch from Su-25 attack aircraft hints at a tactical concept aimed at pushing release points closer to the front line, extending effective reach while reducing fuel demands, and complicating Ukrainian early-warning geometry.
The most controversial element in the Ukrainian assessment is the claim that Russia is considering fitting Geran-5 with R-73 short-range air-to-air missiles. If pursued, this would represent an attempt to transform a one-way strike drone into a limited counter-air platform capable of threatening Ukrainian helicopters or low-flying aircraft. While such a role raises technical challenges in seeker cueing and launch dynamics on an expendable platform, it would nevertheless force Ukrainian planners to treat some drones not only as strike threats but as potential airborne ambush systems along predictable aviation routes.
Ukrainian intelligence argues that Geran-5 cannot be considered a purely indigenous Russian development. Investigators report significant structural and technological similarities with Iran’s Karrar jet-powered UAV, a system Tehran has long marketed as a high-speed strike and interceptor-capable platform. Iran has previously demonstrated Karrar in missile-armed configurations, making Russia’s exploration of an air-to-air role appear less speculative and more a case of adapting an existing foreign design concept to local production and operational needs.
On the defensive side, Ukraine continues to rely on a layered counter-drone system that has evolved under combat pressure. Air defense fighters, surface-to-air missile units, electronic warfare assets, UAV units, and mobile fire groups are integrated into a single engagement framework. Jet-powered drones like Geran-5 stress this system, but jamming, small-arms fire from mobile teams, and selective missile use remain effective when coordinated. Ukraine is also accelerating the fielding of interceptor drones and expanding the number of trained crews and sensors, aiming to impose asymmetric costs on Russia’s expanding UAV arsenal.
HUR confirms that recovered Geran-5 wreckage is now undergoing detailed forensic analysis and that a comprehensive breakdown of its design, components, and supply chains will be published through War&Sanctions. For Army Recognition readers, the significance of Geran-5 lies less in its name than in what it represents: a clear Russian shift toward faster, longer-range, jet-powered unmanned strike systems derived from Iranian design logic, adapted for mass use, and increasingly integrated into complex, multi-domain attack packages.
