Drone Database

Commercial off-the-shelf multirotor drones adapted for military use — cheap, abundant, and easy to operate. Widely used for reconnaissance, artillery correction, and light strike when modified with munition-release mechanisms; the backbone of small-unit ISR in every modern conflict since 2014. Tactical employment centres on the platoon and section: two-operator teams push the aircraft 3–6 km beyond the line of contact for battlefield surveillance, artillery adjustment, and grenade drops on infantry positions, trench openings, and unbuttoned vehicles. Flight profiles hug terrain and thermal masks (buildings, tree lines, hull-down positions) to defeat both radar and line-of-sight optics. In sustained combat, attrition is measured in dozens of airframes per brigade per week and treated as consumable ammunition, not equipment. Fixed-band RF jamming remains the highest-payoff counter because most COTS airframes still use unencrypted 2.4/5.8 GHz control links — but frequency-hopping firmware, community-modified transmitters, and mesh video relays continually erode that advantage, and once the operator memorises approach corridors many missions can be completed on visual/manual flight after link loss. Small-arms and shotgun engagement is possible at short range but success rates in Ukraine reporting remain in the low single digits per encounter, driving deployment of dedicated soft-kill (RF) and hard-kill (interceptor drone, mobile HPM) layers. Recent combat observations: sustained daily use by both sides across the entire Russo-Ukrainian front for artillery correction and grenade drops (RUSI, CSIS 2024–2025); rising employment by non-state actors including Hezbollah along the Israel–Lebanon border for ISR and grenade attacks (Alma Center 2026); and expanding use by JNIM and ISGS in Mali, Burkina Faso and Niger for propaganda-driven strikes on Sahel state forces (ACLED Watchlist 2024). The type has effectively democratised organic aerial ISR down to the squad level in every active theatre.

Purpose-built military multirotor with encrypted communications, thermal/night vision sensors, and ruggedized construction. Offers better range, security, and reliability than COTS drones. Used for forward observation, target acquisition, and ISR at company/battalion level.

First-person view racing drone converted into a guided munition. The operator wears goggles and manually flies the drone directly into the target at high speed. Extremely effective against vehicles, fortifications, and personnel. The defining precision-strike weapon of modern drone warfare.

Large octocopter or hexacopter modified to carry multiple mortar rounds, anti-tank mines, or improvised bombs. Operates primarily at night for covert bombing runs on trenches, equipment, and supply areas; increasingly used for remote area-denial mining, air-dropping anti-tank mines onto roads, main supply routes and casualty-evacuation corridors deep in enemy rear, where the mine remains active long after the drone has left. Tactical employment is standoff and methodical: launch points 4–8 km behind the forward edge, transit at 50–150 m above ground level under the radar horizon, and orbit the release point at low speed with thermal cameras selecting targets. A single sortie typically drops 4–8 munitions in sequence, then egresses along a rehearsed corridor. Mining sorties are the harder problem for the defender — the airframe leaves the engagement area within minutes, and the mine field it seeds behind the forward line of own troops can only be cleared by engineer route reconnaissance, not by any counter-UAS effector. Kinetic engagement is possible because the platform is large, slow, and acoustically loud (audible at 1–2 km on still nights), but night operations, terrain-masked flight, and encrypted or fibre control links progressively erode the value of RF jamming and small-arms interception. Layered defence works best when acoustic sensors cue a directional RF jammer or interceptor drone before the platform reaches its release orbit — once the mines are gone, the shot is wasted. Recent combat observations: sustained nightly employment across the Russo-Ukrainian front, with air-dropped anti-tank mine attacks on rear-area roads and casualty-evacuation routes documented throughout 2024–2026 (RUSI Tactical Developments, CSIS Drone War 2025). The platform has effectively made the enemy's operational rear a mined area at drone standoff range — a change in the geometry of the fight, not just its tactics.

Next-generation FPV drone that trails a thin fibre-optic cable instead of using RF video or control links. Completely immune to RF jamming, GPS spoofing, and every form of electronic warfare — the single most difficult drone type to counter with existing technology. Tactical employment mirrors the standard FPV workflow (operator with goggles, spotter, launch team 4–10 km behind the line of contact) but with two decisive differences: the aircraft can fly directly through an active jamming umbrella that would ground every RF-controlled drone in the same airspace, and it emits no exploitable radio signature at all, so passive RF geolocation of the operator is blind. Standard employment against armoured vehicles, command posts, artillery positions, and infantry in dugouts is now routine, and the type is displacing conventional FPV kamikazes on high-value missions inside dense electronic-warfare bubbles. The defensive problem is that every soft-kill layer in the C-UAS stack — RF jamming, GPS spoofing, RF geolocation, cyber takeover — falls to zero effectiveness against this platform, forcing engagement into hard-kill only: shotguns and small arms at short range, anti-drone nets and tunnels over fixed positions, physical overhead cover, vision-guided interceptor drones, and high-power microwave systems that damage the airframe's flight electronics regardless of the control link. Fibre-optic drones remain physically constrained — the cable can snag on trees, wires and rubble, cannot execute tight reversals, and adds weight that reduces agility — and terminal engagement by shotgun teams cued by acoustic and AI-vision detectors is currently the most consistent lethal counter at squad level. Recent combat observations: cable-guided FPVs now standard kit on both sides of the Russo-Ukrainian front with spool ranges extended from ~10 km in late 2023 to 20–40 km by 2026, first strikes reaching Kharkov city limits in February 2026 (RBC-Ukraine, Atlantic Council), the U.S. Army CALL and NATO both formally flagging fibre-optic FPVs as a C-UAS challenge without a mature counter (Aug 2025, May 2025), high-power microwave interception demonstrated against a fibre-optic target in U.S. government tests (Dec 2025), and Hezbollah adopting Ukraine-style fibre-optic FPVs against IDF troops in southern Lebanon from May 2026 — the first Ukraine-war doctrine to cross into the Middle East (BBC, Jerusalem Post, Alma Center).

Small to medium fixed-wing UAV used at brigade/division level for ISR and artillery correction. Hand-launched or catapult-launched, with longer endurance than multirotors. Provides persistent overhead surveillance over a wider area.

Medium-Altitude Long-Endurance (MALE) or High-Altitude Long-Endurance (HALE) fixed-wing UAV. Operates at strategic level with precision-guided munitions and advanced ISR sensors. Can loiter for 24+ hours over a battlespace.

Compact, man-portable loitering munition that can search for and engage targets autonomously or with operator guidance. Combines drone ISR with precision strike in a single system. Launched from a tube, loiters until target identified, then dives to attack.

Long-range, large-warhead loitering munition designed for strategic strike. Navigates by GPS/INS to pre-programmed targets over hundreds or thousands of kilometres; 2026 variants add onboard electro-optical seekers with machine-vision AI for terminal target acquisition, defeating GPS spoofing and enabling strikes on moving or relocated targets. Designed for saturation attacks that overwhelm air defences — a low-cost cruise-missile substitute produced in the thousands per month. Tactical employment is doctrinal and mass-driven: launches are batched in waves of dozens to over a hundred airframes routed along multiple axes, mixing decoys and real warheads to force the defender to expend high-cost interceptors on low-cost targets. Terminal approach is low-altitude to defeat medium-range radars, with cruise legs above the small-arms envelope but well below fighter and long-range SAM sweet spots — the geometry is deliberately inconvenient for every existing defence. Machine-vision seeker variants close the last kill loop autonomously: once the aircraft is within visual range of the target class it was trained on, GPS spoofing and INS drift stop mattering. The defensive problem is arithmetic. Medium-range SAMs and fighter cannon kill this platform reliably per engagement, but at a per-round cost that inverts the exchange ratio; interceptor drones and gun-based C-UAS shift the ratio back toward the defender but require dense coverage of every likely ingress corridor. High-power microwave and laser systems close the cost gap once fielded at scale, but 2025–2026 fielding remains partial. Recent combat observations: sustained saturation campaigns against Ukrainian energy and port infrastructure with launches reaching 5,000+ per month by late 2025 (ISIS analytical review), jet-powered variants entering serial production from early 2025 with speeds near 600 km/h (UAS Vision), a 2026 seeker variant flown into a Ukrainian grain ship in the Danube delta with jamming ineffective against its onboard machine-vision guidance (Euromaidan Press Jul 2026), and the 170-airframe Iranian direct strike on Israel in April 2024 as the canonical demonstration that even near-total interception by a layered defence is economically unsustainable at scale (CSIS Drone Saturation, RUSI Air War).

Multiple autonomous or semi-autonomous drones operating as a coordinated unit. Uses AI and mesh networking for distributed decision-making, target allocation, and mutual support. Designed to overwhelm point defenses through numbers and simultaneous multi-axis attack.

Drone with onboard AI for autonomous target recognition, classification, and engagement without requiring a human operator. Uses computer vision and machine learning to identify and attack targets independently. Immune to all RF jamming and communications disruption.

Unmanned surface vessels (USV) or underwater vehicles (UUV) for asymmetric naval warfare. USVs are explosive-laden boats guided by GPS and video link, capable of damaging warships. Revolutionized maritime warfare by allowing small nations to deny sea control.

Large multirotor or helicopter-type UAV designed for logistics and battlefield resupply. Delivers ammunition, medical supplies, and equipment to forward positions without risking personnel on dangerous supply routes.

Small hand-launched fixed-wing drone for company/battalion-level ISR. Purely a sensor platform with long endurance relative to its size. Lightweight and easy to transport by infantry.

A multirotor drone connected to a ground station by a power/data cable, providing virtually unlimited endurance. Acts as a persistent elevated sensor platform — a poor man's aerostat. Used for perimeter security, base defense, convoy overwatch, and event surveillance.

Drone combining vertical takeoff/landing capability with efficient fixed-wing cruise flight. Uses tiltrotors, tail-sitters, or separate lift/cruise motors. Bridges the gap between quadcopter flexibility and fixed-wing endurance. No runway needed but offers significantly longer range and endurance than pure multirotors.

High-speed unmanned combat aerial vehicle powered by jet engine. Designed to operate as a 'loyal wingman' alongside manned fighters or autonomously in contested airspace. Carries air-to-ground or air-to-air weapons. Represents the cutting edge of military drone technology — essentially an unmanned fighter jet.

Drone specifically designed to deceive enemy sensors and air defenses. Emits radar, infrared, or RF signatures mimicking larger aircraft or other high-value targets. Used to saturate enemy AD systems, trigger radar emissions for SEAD missions, or protect strike packages by drawing fire.

Extremely small drones (palm-sized or smaller) designed for close-range ISR, especially in urban environments and inside buildings. Used for room-clearing reconnaissance, hostage situations, and covert surveillance. Nearly undetectable due to minimal size, noise, and signature.

Drone designed for chemical, biological, radiological, or nuclear (CBRN) missions. Can carry detection sensors to survey contaminated areas without risking personnel, or theoretically be weaponized to disperse chemical/biological agents. A dual-use threat — essential for both defense and offense.

Solar-powered or hydrogen-fueled drone operating at stratospheric altitudes (18–25 km) for weeks or months. Acts as a low-cost alternative to satellites for persistent ISR, communications relay, and signals intelligence. Flies above weather and most air defense systems.

Standoff glide bomb fitted with pop-out wings, GPS/INS guidance and a satellite-corrected autopilot. Released from a manned aircraft well outside short-range air defense, it glides 40–80 km onto fixed targets. Cheap upgrade kits convert legacy unguided bombs into precision standoff weapons, dominating Russian frontline strike since 2023.

Larger UAV that carries and releases sub-drones — FPVs, loitering munitions, or decoys — deep behind the front line. Extends the effective range of short-legged drones by hundreds of kilometres and complicates the defence by spawning multiple low-altitude threats from a single radar track. Tactical employment reads as an aviation problem, not a drone problem: the carrier ingresses at 1,500–3,000 m along a rehearsed corridor, releases its payload outside the engagement zone of point-defence C-UAS, and either returns to base or continues as an ISR relay. Each released sub-drone then operates as if launched from the release point, giving a 200–1,500 km carrier the ability to project 10–40 km FPV strikes into targets that were previously unreachable — command posts, air defence sites, logistics hubs, port infrastructure. From the defender's point of view, one radar contact becomes eight, spread across a wide arc, at low altitude, at the same moment. Cueing chains built for one threat at a time saturate immediately. The most effective counter is early kill of the carrier before release: medium-range SAMs, air-to-air interception by fighters, and passive RF geolocation of the carrier's datalink all remain viable while the platform is at cruise altitude. Once the sub-drones are released the problem devolves to standard FPV / loitering-munition defence at every impact point simultaneously, which is arithmetically the harder shot. RF jamming has only moderate effect because carrier and sub-drones increasingly use encrypted mesh links or fibre relays; laser and HPM systems help against the released swarm but require dense coverage of the target area. Recent combat observations: Ukrainian carrier platforms demonstrating 300 km deep-strike with two-FPV payloads (Janes, Army Technology 2025), open-source flight tests through 2025 (UAS Vision Apr 2025), Iranian large loitering munitions reported releasing sub-munitions over target areas, and Houthi experimentation with carrier UAV concepts in Red Sea operations. The type is the operational bridge between the tactical FPV fight and the strategic deep-strike fight — and current air defence architectures are only partially adapted to it.

Multirotor or hybrid platform engineered for very low acoustic signature using ducted fans, toroidal/serrated propellers, electric drive and noise-absorbing structures. Designed to evade acoustic detection arrays and maintain covert ISR over urban or sensitive sites.

Repurposed commercial crop-spraying multirotor capable of carrying 20–50 kg payloads. Cheap, rugged and widely available, used as a poor-man's bomber by non-state actors and irregular forces to drop mortar rounds, IEDs or incendiaries. The Ukrainian 'Baba Yaga' / Vampire-class variant is also widely used for **remote area-denial mining**, scattering anti-tank mines on Russian supply roads and rear-area MSRs at night.

Hostile drone-vs-drone hunter platform — fast FPV, fixed-wing or AI-guided interceptor designed to ram, net or shoot down friendly UAVs. Symmetric counter to your own ISR and strike drones; an emerging frontline reality in Ukraine and the Middle East.

Inert (warhead-free) drone designed to kill by mass × velocity rather than explosive payload. Two operational profiles: (1) offensive cheap ram-drones used against ISR platforms, antennas, optics and parked aircraft; (2) defensive hard-kill interceptors used drone-vs-drone against Shahed-class OWA and FPVs. Reinforced airframe, terminal AI vision or proportional-navigation guidance, no explosive train — making it cheaper, exportable without munitions licensing, and harder to detect by thermal/EOD sensors.

Long-range, propeller-driven, one-way attack drone designed for pre-programmed strikes against fixed strategic targets — power grids, ports, airfields, refineries. Distinct from loitering munitions: it does not loiter or hunt. It flies a pre-planned route on GPS + inertial guidance and detonates a heavy warhead on impact. The dominant deep-strike asset of the Russia–Ukraine war and the Houthi campaign in the Red Sea.

Unmanned surface vessel optimized for high-speed, low-profile strikes against warships and port infrastructure. Distinct from generic naval USV/UUV platforms: purpose-built for one-way attack with a large explosive charge, semi-autonomous waypoint navigation, and terminal operator control via satellite or relay drone. Re-shaped Black Sea naval doctrine and is now a top-tier threat to surface fleets worldwide.