Rafael unveils Hunter Eagle interceptor for counter-drone swarm defense at ILA 2026 in Germany.

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

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

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

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

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

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

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

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

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

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

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

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

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

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

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

Written by Jérôme Brahy

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

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