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U.S. Soldiers Test Helsing HX-2 AI Strike Drone Achieving 15 Kills in NATO Eastern Flank Exercise.
German defense company Helsing’s HX-2 strike drone demonstrated its combat potential during Project Flytrap in Lithuania, where U.S. soldiers used the AI-enabled loitering munition to detect and destroy targets in a realistic drone warfare environment. The results, reported on June 9, 2026, highlight growing U.S. interest in European-built precision strike systems capable of operating under electronic attack near NATO’s eastern flank.
The electrically powered HX-2 achieved 15 kills and two near-misses across 17 engagements, while also proving its value as a reconnaissance and target-tracking platform through onboard computer vision. Its ability to find, identify, and pursue targets in contested electromagnetic conditions reflects a broader shift toward autonomous systems designed to enhance battlefield awareness, survivability, and precision strike capability.
Related topic: Germany Approves €540M Medium-Range Loitering Munition Procurement from Helsing and Stark Defence Firms.
U.S. soldiers tested Helsing's HX-2 AI-enabled loitering munition during Project Flytrap in Lithuania, where the 12 kg drone was used to detect and strike targets under electronic warfare conditions (Picture source: Helsing).
The test took place inside Project Flytrap 5.0, a V Corps-led multinational counter-unmanned aerial systems exercise in Lithuania involving U.S. forces, allied personnel from the United Kingdom and Australia, and industry teams. The activity assessed more than 20 different systems in an operational environment and used standardized data collection so that results could inform requirements across U.S. services and agencies. That point is important: Flytrap was not a trade-show firing event, but an attempt to compare sensors, effectors, command-and-control tools, electronic warfare equipment, and soldier feedback under field conditions.
The HX-2 itself is a compact X-wing precision munition designed for beyond-line-of-sight attack. Helsing gives the drone a range of up to 100 km, a weight of 12 kg, a maximum speed of 220 km/h, and a multi-purpose anti-tank and anti-structure payload. The company states that it can engage artillery, armored vehicles, and other military targets, while published technical reporting has cited a maximum warhead weight of about 4.5 kg. Helsing has not publicly released detailed information on the fuze, seeker sensor, datalink frequencies, terminal attack profile, or unit cost, which limits outside assessment of lethality against different armor classes.
From an armament perspective, the most relevant detail is the payload family. Helsing lists multiple payload options, including an armor-penetrating shaped charge. A shaped charge uses explosive energy focused through a metal liner to produce a high-velocity jet intended to penetrate armor or dense structural material; in a 12 kg air vehicle, the effect is not comparable to a heavy anti-tank guided missile, but it can be sufficient against lightly armored vehicles, artillery, radars, air defense components, logistics vehicles, exposed command posts, and vulnerable upper or side aspects of heavier vehicles depending on impact geometry. The anti-structure role also matters because small units increasingly need precision effects against field shelters, firing positions, relay nodes, and temporary fortifications without waiting for divisional fires.
The tactical value demonstrated at Flytrap was not only the explosive effect. Helsing says HX-2 uses onboard artificial intelligence to search for, re-identify, and engage targets even without a continuous signal or data connection, while a human operator remains in or on the decision loop for critical actions. In practical terms, this reduces dependence on manual piloting and continuous radio control, two weaknesses repeatedly exploited by electronic warfare in Ukraine. It does not make the drone immune to all countermeasures; visual obscuration, decoys, camouflage, hard-kill defenses, spoofed signatures, and adverse weather can still affect performance. The more precise conclusion is that HX-2 is designed to shift part of the guidance burden from the operator and radio link to onboard perception and mission software.
That is why its use as both a reconnaissance drone and strike munition is operationally significant. A cavalry troop or forward detachment equipped with weapons in this class can search suspected artillery positions, hold a target area under observation, and attack when a valid target appears, rather than relying only on a separate reconnaissance drone followed by artillery or missile fire. This shortens the sensor-to-shooter chain and gives maneuver units a limited organic deep-strike option out to 100 km. It also creates a counter-drone use case: if onboard vision can identify and track hostile unmanned aerial vehicles, the same expendable airframe can be used as an aerial interceptor against slower or predictable drone threats, although engagement geometry, target speed, and cost exchange would determine whether this is efficient in combat.
Project Flytrap has followed a deliberate development path. Flytrap iterations 2.0 through 4.0, held in Germany and Poland between May and August 2025, examined which counter-drone equipment belonged at different echelons and helped standardize initial small-unit tactics. Flytrap 4.5 at Putlos, Germany, in November 2025 focused on newer industry technology and operator proficiency. Flytrap 5.0 then moved to squadron-scale integration, which is the level where questions of airspace control, electronic warfare coordination, fratricide prevention, data routing, and maintenance burden become more realistic.
Helsing’s own development path is equally relevant. The company announced on February 13, 2025, that it was producing 6,000 HX-2 strike drones for Ukraine, following a previous order of 4,000 HF-1 strike drones. It described HX-2 as an electrically propelled X-wing precision munition unveiled in late 2024 and designed for lower-cost mass production compared with conventional weapons. Helsing also said its first Resilience Factory in southern Germany had an initial capacity of more than 1,000 HX-2 drones per month, with additional European production sites planned. For European militaries, the industrial point is as important as the drone: sustained conflict requires thousands of attritable precision weapons, not small inventories of expensive missiles.
For the United States, the importance is different but related. U.S. forces already possess deep stocks of crewed aircraft, missiles, artillery, and intelligence assets, but Ukraine has shown that battalion and brigade formations also need cheap, repairable, rapidly updated systems that work in dense electronic warfare and can be replaced at scale. If HX-2 or similar European loitering munitions can be integrated with U.S. command-and-control tools and NATO targeting processes, they could give American units in Europe more strike depth without committing scarce aircraft or high-end missiles to every small target. For Europe, the same technology supports a move toward sovereign production, shorter supply lines, and a larger precision-strike inventory. For NATO as a whole, the operational question is no longer whether loitering munitions are useful, but how quickly armies can connect them to reconnaissance, artillery, electronic warfare, and air defense in a disciplined kill chain.
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Written by Evan Lerouvillois, Defense Analyst.
Evan studied International Relations, and quickly specialized in defense and security. He is particularly interested in the influence of the defense sector on global geopolitics, and analyzes how technological innovations in defense, arms export contracts, and military strategies influence the international geopolitical scene.