On July 7, 2026, NATO announced in Ankara that its member states would invest more than 40 billion US dollars over the next five years to expand counter-unmanned defense systems, purchase unmanned aerial vehicle equipment and train combat personnel, so as to build an all-domain protection barrier against the fastest-growing threats on modern battlefields. This entire investment plan marks a shift from fragmented independent development by individual member states to unified coordinated planning under NATO, with coordinated efforts in the detection, suppression and large-scale deployment of unmanned equipment.

This plan sets up a unified NATO procurement and trading platform for counter-unmanned systems equipment, expands the training scale of drone operators relying on NATO's European Flight Training System, and signs major procurement contracts for reconnaissance drones through the NATO Support and Procurement Agency. This initiative streamlines three key links: industrial access, personnel training and centralized equipment procurement, and boosts the combat readiness of all member states amid high-intensity conflicts. At present, unmanned systems have profoundly affected full-spectrum combat operations covering reconnaissance, target designation, troop protection and air defense.

The military issue behind the funding is the changing cost, density, and employment pattern of unmanned aircraft. In Ukraine, both sides have used small quadcopters, first-person-view attack drones, fixed-wing reconnaissance drones, loitering munitions, and longer-range one-way attack unmanned aircraft in quantities that conventional short-range air defence units were not originally sized to handle. A brigade headquarters, artillery battery, radar detachment, ammunition point, fuel site, air base, or railway node can now be observed, targeted, or struck by equipment that may cost far less than the interceptor used against it. This creates a defensive imbalance: a force that expends medium-range surface-to-air missiles against small unmanned aircraft may defeat the immediate threat but weaken its magazine depth against aircraft, cruise missiles, or ballistic missiles. NATO’s investment therefore appears aimed less at buying one type of weapon than at building a lower-cost defeat chain for targets flying at low altitude, low speed, and small radar cross-section.

The range of equipment covered by the complete solution is determined by each country’s independent procurement plan, yet a clear classification has been established for the full counter-unmanned aerial system (C-UAS) architecture, which is generally divided into a detection layer and a countermeasure effect layer. The detection layer consists of compact 3D surveillance radars, passive radio frequency (RF) detection equipment (capable of capturing remote control signals and image downlinks), optoelectronic and infrared identification devices, and acoustic early warning arrays adapted to complex urban environments. The countermeasure effect layer falls into two major categories: non-kinetic suppression and kinetic interception. Non-kinetic measures include directional RF jamming, satellite navigation spoofing, network protocol hijacking where feasible, and high-power microwave equipment. Kinetic measures cover dedicated interceptor drones, small missiles compatible with short-range air defense systems, and artillery firing programmable airburst munitions; net-type and fragmentation interception devices may be deployed for certain point defense scenarios. Ground forces shall prioritize vehicle-compatible variants that can connect to existing air defense command and control networks, ensuring protective capabilities for dispersed combat units rather than solely large fixed emplacements.

There are clear distinctions in the tactical application scenarios of various countermeasure methods. If the target relies on wireless remote control or satellite navigation, electronic jamming is usually the lowest-cost option; however, jamming effectiveness will drop drastically against FPVs with autonomous flight paths, inertial navigation flight, frequency-hopping communication, and optical fiber control. Autocannons armed with 30/35/40mm programmable airburst rounds are more cost-effective than missiles, yet they demand high-precision tracking data and require control over collateral damage risks in residential areas. Interception of unmanned aerial vehicles (UAVs) can be carried out in airspace far from protected zones, offering the potential for large-scale countermeasures, but it requires rapid launch, target handover, and autonomous terminal guidance, alongside proper airspace conflict avoidance. High-power microwave weapons are suitable for suppressing drone swarms, and their combat effectiveness is constrained by effective range, power generation capacity, beam control, engagement rules, weather and terrain conditions, as well as enemy electronic countermeasures. The core demand of NATO lies not in the performance of a single piece of equipment, but in matching the most cost-effective and viable countermeasures to different target types.

The unified procurement trading platform of NATO carries critical value. Previously, each member state independently purchased counter-unmanned aerial systems (C-UAS) equipment, with radars, jammers, electro-optical tracking devices, interceptor missiles and supporting software sourced through separate channels, resulting in poor interoperability of the equipment. The new platform catalogues all standard equipment that has passed NATO tests and meets universal compatibility criteria, shortening the delivery cycle for deployment. Meanwhile, it connects national procurement systems and the joint command-and-control framework of all member states via unified C-UAS data standards. The core challenge of this solution lies in the cross-manufacturer data intercommunication capability: whether radars, jamming devices and interceptor drones from different brands can directly share target tracks, identification data, combat status and damage assessment information without customized modifications. If interoperability fails to meet standards, massive investment will only create isolated national equipment stockpiles, making it impossible to build a full-spectrum integrated NATO defense network.

Personnel training constitutes the second major restrictive shortcoming. NATO plans to expand the training scale of drone operators to five times the current level by the end of 2027, rather than merely expanding staffing quotas. Operators of modern drones and counter-unmanned aerial system (CUAS) teams must master a wide range of skills including mission planning, spectrum management, camouflage and concealment, target handover, airspace control, payload logistics, and operations in complex electromagnetic environments. Counter-unmanned aerial system personnel receive more extensive training; they are required to accurately identify small targets, prevent friendly fire on domestic unmanned equipment, flexibly deploy jamming or kinetic countermeasures, and abide by border engagement regulations applicable in peacetime. Relying on NATO’s European Flight Training System to scale up drone training enables the implementation of standardized operational procedures among joint forces across multiple countries including Bulgaria, Estonia, Finland, Hungary, Latvia, Lithuania, Poland, Romania and Slovakia. In recent months, drone-related incidents along the Eastern Flank borders have kept rising, placing relevant troops under direct operational pressure stemming from such threats.

This investment plan complements NATO’s existing equipment testing system. From March 9 to 13, 2026, NATO completed the first round of testing, evaluation and verification activities at the innovative unmanned systems test range at the Sēlija Military Training Ground in Latvia. Enterprises from all member states, Ukrainian manufacturers, frontline operational units and government representatives were all present. The site supports test-firings of high-speed, high-altitude interceptor missiles and complex electromagnetic countermeasure experiments, which are highly consistent with the threat scenarios targeted by the projects initiated at the Ankara Conference. This site is one of the five pilot test ranges under NATO’s Rapid Implementation Action Plan. The other four are located in Estonia (cyberspace), the Finland-Sweden border (connectivity testing), Italy (underwater operations) and the Netherlands (shallow sea) respectively. The value of the entire system lies in enabling equipment assessments based on real combat scenarios prior to deployment, instead of judging performance solely by manufacturers’ product brochures.

This plan carries core strategic significance. NATO views counter-unmanned systems defense as an integral component of its deterrence and reinforcement architecture, rather than an additional specialized capability. In the early stages of a crisis, NATO’s efficiency in troop deployment across ports, railway hubs, air bases, ammunition depots and forward assembly areas hinges entirely on the operational availability of the aforementioned nodes. Small unmanned aerial vehicles can conduct persistent surveillance, strike parked fighter jets and block logistics convoys, draining interceptor munitions of air defense units; such threats have escalated from the tactical to the operational level. The comprehensive package unveiled by Ankara integrates four dimensions: equipment procurement, testing and evaluation, personnel training, and industrial scaling. Its implementation effectiveness rests on five key factors: open architecture, combat-oriented testing, rapid software iteration, sufficient stockpiles of interceptors, and multinational interoperable engagement rules. While the USD 40 billion investment represents a massive outlay, the ultimate benchmark lies in NATO’s ability to establish a low-cost, scalable, highly interoperable all-domain defense system that simultaneously shields frontline combat units and rear reinforcement infrastructure.