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At a glance
Fire Point FP-1larger figure on 1 of 1
Terminal Autonomy AQ-400 Scythelarger figure on 0 of 1
Counts only measures both sources give with the same scope. A larger figure is not a better system.
Measured figures
Configuration
| Specification | Fire Point FP-1 | Terminal Autonomy AQ-400 Scythe |
|---|---|---|
| Type | Loitering munition / One-way attack drone[source] | One-way attack drone[source] |
| Place of origin | Ukraine[source] | Ukraine[source] |
| In service | 2024–present[source] | 2023–present[source] |
| Used by | Armed Forces of Ukraine[source] |
Maximum; Maximum speed
Single source200 km/h (120 mph)[source]
Warhead weight
Single source60 kg to 120 kg[source]
Bars compare reported quantities only. A larger figure does not make a system better; configurations and test conditions differ.
Ukraine[source] |
| Wars | Russian invasion of Ukraine[source] | Russian invasion of Ukraine[source] |
|---|
| Designer | Fire Point[source] | — |
|---|
| Designed | 2022–2024[source] | 2022-2023[source] |
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| Manufacturer | Fire Point[source] | Terminal Autonomy[source] |
|---|
| Unit cost | US$55,000 t0 $75,000[source] | USD $30,000[source] |
|---|
| Produced | October 2024 –present[source] | 2023-present[source] |
|---|
| No. built | 5,000+[source] | — |
|---|
| Variants | FPV carrier (dual wing-mounted FPV drones)[source] | — |
|---|
| Warhead | Modular ( Fragmentation or shaped-charge )[source] | 43 kg (95 lb)[source] |
|---|
| Armor | Radar-absorbent materials[source] | — |
|---|
| Main armament | Integral warhead[source] | — |
|---|
| Secondary armament | 2 × deployable FPV drones (optional)[source] | — |
|---|
| Engine | Two-cylinder engine[source] | — |
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| Payload capacity | 120 kg[source] | — |
|---|
| Propellant | Solid rocket booster (launch)[source] | — |
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| Boost time | Solid rocket[source] | — |
|---|
| Guidance system | Inertial and satellite guidance with ECCM[source] | — |
|---|
| Role | Ukrainian long-range, one-way attack drone[source] | one-way attack drone[source] |
|---|
| Source measurement | FP-1 is a Ukrainian long-range, one-way attack drone developed and produced by the defence technology company Fire Point . Introduced in late 2024 in response to the Russian invasion of Ukraine , the FP-1 is designed for deep-strike missions, capable of delivering a warhead over distances up to 1,600 km. It has been deployed by the Armed Forces of Ukraine to target high-value military and logistical sites.[source]Fire Point FP-1 · Lead; only the objects and conditions stated in this passage The FP-1 features a slender fuselage with a two-cylinder engine driving a propeller, a solid rocket booster for launching, and fixed straight wings. It carries a modular warhead weighing between 60 kg and 120 kg, selectable for fragmentation or shaped-charge effects. The airframe employs radar-absorbent materials to reduce detectability. Navigation relies on inertial systems augmented by satellite guidance, with electronic counter-countermeasure capabilities to resist jamming.[source]Fire Point FP-1 · Design; only the objects and conditions stated in this passage By mid-2025, Fire Point had increased production from 30 to over 100 FP-1 units per day, reporting total manufacture of more than 5,000 drones. The UAV has been credited with striking ammunition depots, command posts, and air defence batteries at ranges exceeding 1,200 km. Analysts attribute Ukraine's ability to disrupt rear-area logistics to the FP-1's cost-effectiveness – US$55,000 to $75,000 per unit according to the Fire Point CEO versus US$200,000 for comparable systems. Recent capability expansions include carrying two deployable FPV drones on the wings.[source]Fire Point FP-1 · Operational history; only the objects and conditions stated in this passage On 6 July 2026, Ukrainian drones, reported to be FP-1, travelled over 2,500 km and hit Russia's Omsk refinery , the largest oil refinery in Russia.[source]Fire Point FP-1 · Operational history; only the objects and conditions stated in this passage | It has two sets of wings, one forward and one rear, with a wingspan of 2.3 m; 30 fully-assembled Scythes can be stacked in one shipping container for transport.[source]Terminal Autonomy AQ-400 Scythe · Design; only the objects and conditions stated in this passage Overall weight is 100 kg with a 43 kg payload, of which 32 kg is the warhead which can be thermobaric or hold two 122 mm artillery shells.[source]Terminal Autonomy AQ-400 Scythe · Design; only the objects and conditions stated in this passage Using the standard gas engine and pusher propeller , the AQ-400 has a cruise speed of 144 km/h (89 mph), a top speed of 200 km/h, endurance of 6.5 hours, and a strike range of 750 km; depending on the engine option, range could be increased as far as 900 km (560 mi), or payload increased to 70 kg (150 lb) at a reduced range.[source]Terminal Autonomy AQ-400 Scythe · Design; only the objects and conditions stated in this passage Guidance at low altitude uses a laser altimeter to approach at 30 m to minimize the effects of electronic warfare to jam GPS navigation until very close to the target. At high altitudes of 3,000 m, it navigates with a visual positioning system using roads and other visible landmarks. A video link option is available so an operator can manually guide the drone to hit moving targets, but this adds costs and only works at shorter ranges. The basic Scythe airframe costs USD $15,000, which increases to USD$30,000 with a guidance system and other features; this compares to around USD$20,000 for a Shahed-136 one-way attack munition used by Russia . Swarms can use a leader-follower method, where one lead drone carrying a navigation system is followed by nine basic drones, which help saturate the target area and draw off enemy defenses from the lethal version. The use of such drones is intended to overwhelm air defenses as well as make them expend expensive interceptors against cheaper targets, exhausting their supplies over time.[source] |
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| Blast yield | — | 32 kg (71 lb)[source] |
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| Flight altitude | — | 30–3,000 m (98–9,843 ft)[source] |
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| Reported operators | — |
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