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Anti-Drone Gun Suppliers & Manufacturers
ASELSAN
Advanced Mission Systems for Defense Forces Across the Land, Air, Naval & Space Domains
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ParaZero Technologies
Revolutionary New Net-Based Counter-UAS Systems for Military Force Protection
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Military Anti-Drone Guns
The Specifiers Guide to Military Anti-Drone Guns
Introduction to Military Anti-Drone Guns
Military anti-drone guns are portable Counter-Unmanned Aircraft Systems (C-UAS) used to disrupt, disable, capture, or destroy hostile drones. They include jammer rifles, net-launching systems, and kinetic weapons, and usually operate alongside radar, Radio Frequency (RF) sensors, Electro-Optical (EO) cameras, command-and-control software, and other air defense systems.
No single anti-drone weapon is effective against every aircraft. RF jamming may cause a drone to land, hover, return home, or lose navigation, but may not stop autonomous, fiber-optic-controlled, frequency-agile, or tethered platforms. Kinetic systems also introduce range, accuracy, safety, and collateral-risk concerns, making handheld anti-drone guns one layer within a broader defensive approach.
Types of Military Anti-Drone Guns
Standalone Handheld RF Jamming Guns
MİĞFER, a interception system for small drone threats, from Aselsan
A standalone handheld anti-drone gun uses directional RF energy to interfere with command, control, video, telemetry, or navigation links. This drone disabler gun is operator-aimed. Performance depends on line of sight, antenna alignment, frequency coverage, signal strength, and fail-safe behavior.
Rifle-Form Counter-UAS Systems
A rifle-form C-UAS gun places antennas, controls, batteries, and sighting aids in a shoulder-fired layout. The form improves handling, although it is an electronic effector unless designed for kinetic engagement.
Backpack-Supported Anti-Drone Guns
Backpack-supported systems separate heavier batteries, processors, cooling hardware, or amplifiers from the handheld unit. This can extend endurance, but it increases operator load and setup needs.
Multi-Band Electronic Countermeasure Systems
Multi-band anti-drone jammer guns address several control and navigation bands. Broader coverage improves flexibility, but use depends on spectrum authorization, electromagnetic deconfliction, threat knowledge, and protection of friendly systems.
Sensor-Integrated Anti-Drone Guns
Sensor-integrated anti-drone guns receive target information from radar, passive RF detectors, EO cameras, or other sensors. Cueing reduces search time and improves identification in poor visibility or cluttered terrain. Human confirmation remains important where friendly drones, birds, or civilian aircraft may be present.
Vehicle-Connected and Networked Handheld Effectors
Vehicle-connected anti-drone rifles may draw power, target data, or communications from a mobile platform. Networked operation supports a shared air picture, but the effector must remain interoperable with command networks and friendly electronics.
Kinetic Anti-Drone Firearms and Specialized Ammunition
DefendAir, an anti-drone net gun, from ParaZero Technologies
Kinetic anti-drone weapons use conventional firearms, controlled-pattern projectiles, or purpose-developed ammunition to damage or destroy the aircraft. Use requires attention to range, background hazards, falling debris, and the difficulty of hitting a small moving target.
Net-Launching and Physical-Capture Guns
Net-launching systems entangle propellers or restrict flight without RF effects. They may suit areas where jamming is unsuitable, although short range, reload time, wind, and limited effectiveness against fast drones constrain them.
Military Applications of Anti-Drone Guns
FOB Protection and Logistics Site Protection
At Forward Operating Bases (FOBs) and logistics sites, a military anti-drone gun can protect command posts, ammunition areas, fuel storage, and other vulnerable assets. It may serve as a last-line effector after sensors classify a drone.
Dismounted Patrol and Infantry Protection
Dismounted units may carry a handheld anti-drone system against reconnaissance, spotting, or First-Person-View (FPV) threats. Low weight, battery endurance, simple controls, and rapid acquisition matter alongside other mission loads.
Convoy and Mobile Force Protection
Convoys can use vehicle-supported or man-portable counter-UAS guns against drones approaching from changing directions. Vehicle sensors improve warning, while secure stowage supports rapid use.
Airfield and Flight-Line Security
Airfields require counter-UAS measures that protect aircraft, runways, maintenance areas, and fuel infrastructure without disrupting friendly aviation. Anti-drone jamming guns must be coordinated with air traffic procedures, navigation aids, communications, and spectrum use.
Artillery and Air Defense Protection
Artillery batteries and air defense units are vulnerable to drones used for targeting, battle damage assessment, or attack. A counter-UAS gun adds a close-range layer when higher-tier interceptors are unavailable or reserved.
Border and Perimeter Security
Border posts and military perimeters may use anti-drone rifles against unauthorized surveillance, smuggling, or payload delivery. Persistent sensors are important because a handheld effector requires early detection.
Naval Vessel and Port Protection
On ships and at ports, anti-drone guns can defend decks, masts, cargo areas, and critical infrastructure. Maritime use requires corrosion resistance, weather sealing, electromagnetic compatibility, and safe operation around navigation equipment.
Drone Threats Addressed by Anti-Drone Guns
Anti-drone guns may address several small-UAS threats, but the suitable effect varies with design, control method, autonomy, speed, altitude, and payload:
- Commercial and modified multirotor drones: These aircraft may support observation, targeting, payload delivery, or direct attack.
- First-Person-View drones: FPV systems can be fast, agile, and difficult to track manually.
- Small fixed-wing unmanned aircraft: Fixed-wing platforms may fly farther and faster than multirotors, reducing response time.
- Reconnaissance and payload-carrying UAS: Defenses may need to counter intelligence-gathering aircraft and drones carrying disruptive or hazardous payloads.
- Autonomous and preprogrammed drones: Aircraft following stored routes may continue after control-link disruption.
- Swarming and saturation threats: Multiple targets can exceed one operator or handheld anti-drone weapon.
- Non-RF-controlled and tethered aircraft: Fiber-controlled, tethered, or non-radio-linked systems may require kinetic or physical countermeasures.
Understanding navigation, communications, and link-loss behavior helps determine whether a drone jamming rifle, kinetic drone defense measure, or another effector is appropriate.
Environmental & Military Qualification
Military anti-drone equipment may face heat, cold, dust, rain, vibration, salt exposure, and dense electromagnetic environments. Relevant qualification programs include:
- MIL-STD-810 environmental testing: Selected methods assess mission-relevant temperature, humidity, shock, vibration, dust, and precipitation.
- MIL-STD-461 electromagnetic interference and compatibility: Evaluation determines whether the system creates unacceptable interference or is vulnerable to nearby electronics.
- MIL-STD-882 system safety: A structured process identifies and controls hazards involving batteries, RF exposure, kinetic effects, and field operation.
Qualification is not blanket approval. It should identify tested methods, limits, configuration, platform, mission profile, storage, and electromagnetic environment.
Emerging Technologies in Anti-UAV Weapons
Development aims to make anti-drone defense systems more adaptable, connected, and selective:
- Software-defined and reprogrammable RF systems: Updatable architectures can support new waveforms, control protocols, and threat libraries.
- Adaptive and protocol-specific electronic effects: Selective countermeasures, including protocol exploitation where authorized, may reduce interference and improve effectiveness against known links.
- Automated sensor cueing and target tracking: Links to radar, passive RF, and EO sensors can help operators acquire and follow targets.
- Artificial Intelligence (AI)-assisted threat classification: Machine-assisted analysis may help distinguish drones from birds, clutter, and friendly aircraft when paired with reliable sensors and human oversight.
Future military anti-drone weapons will remain part of layered counter-UAS networks combining detection, identification, command decisions, and multiple defeat options.
