IN Brief:
- Elbit Systems is developing hardware to counter explosive drones used by Hezbollah.
- The work is expected to draw on counter-UAS, electronic warfare, directed energy, and battlefield sensor integration.
- Rising demand from Israel, Europe, the US, APAC, and the Gulf is turning counter-drone technology into a major defence production category.
Elbit Systems is developing new hardware to counter explosive drones used by Hezbollah, as battlefield drone threats continue to push air defence, electronic warfare, and directed-energy technology into closer alignment.
The work is being pursued with Israel’s defence ministry and is directed at a threat that has become difficult to defeat through conventional short-range air defence or electronic jamming alone. Explosive drones and loitering systems are small, comparatively cheap, hard to classify quickly, and increasingly able to operate through disrupted electromagnetic conditions. Some can be pre-programmed, hardened against jamming, or flown in ways that reduce the effect of standard RF defeat methods.
Counter-UAS technology is now moving beyond single sensors and individual jammers. The emerging model combines radar, electro-optical sensors, acoustic detection, RF analysis, AI-supported classification, command-and-control software, remote weapon stations, missiles, guns, interceptors, high-power microwave, and laser effectors. Elbit’s work belongs to that layered architecture, with directed-energy options drawing renewed attention because expensive missile interceptors are difficult to justify against low-cost drones at scale.
Laser systems offer a low cost per shot, deep magazine depth while power is available, and rapid engagement cycles. They also create demanding production problems. A deployable laser weapon needs beam control, power generation, thermal management, rugged optical components, fire-control algorithms, safety systems, target tracking, atmospheric compensation, and integration into wider air-defence networks. The equipment must operate in heat, dust, humidity, vibration, battlefield movement, and imperfect visibility.
Elbit already works across electronic warfare, electro-optics, unmanned systems, airborne self-protection, and counter-drone technologies. That breadth gives it a base for systems that have to detect, classify, track, and defeat different types of drone through different effects. A small quadcopter, a fixed-wing explosive drone, a loitering munition, and a swarm of low-cost airframes do not present the same detection or defeat problem.
Demand is coming from several regions at once. Israel faces immediate pressure from drone attacks launched from Lebanon and other fronts. European countries are absorbing lessons from Ukraine, where drones have become a constant battlefield presence. The United States is pushing counter-UAS procurement across base defence, manoeuvre forces, and homeland security. APAC militaries are examining layered protection for air bases, ports, islands, radar sites, and critical infrastructure. Gulf states have already faced drone and missile threats against energy and strategic assets.
The production challenge is repeatability. Counter-drone systems can be demonstrated against selected targets in controlled conditions, but the operational environment is less tidy. Drones change airframes, flight profiles, control methods, datalinks, autonomy levels, and payloads quickly. Manufacturers need architectures that can be updated without rebuilding the entire system every time the threat shifts.
That demand is already visible across other counter-UAS programmes. VAMPIRE’s Indo-Pacific exercise use has strengthened the case for modular, lower-cost counter-UAS launchers, while Britain’s work on Skyhammer and DragonFire shows how missiles and directed energy are being developed as complementary tools rather than rival technologies. The production pattern is becoming clearer: the market wants layered systems that can be built, upgraded, and fielded quickly.
The supplier base behind counter-drone capability is broad and vulnerable to bottlenecks. Thermal imagers, compact radars, RF front ends, rugged processors, optical assemblies, batteries, cooling systems, power electronics, precision mounts, and guidance components all become pressure points once procurement accelerates. Visible launchers and effectors often attract attention, but less obvious components can determine output.
Software and data are equally important. Drone classification, threat prioritisation, sensor fusion, and effector selection all depend on algorithms that can adapt to new signatures and tactics. A system that misclassifies friendly drones, birds, clutter, or civilian traffic will be difficult to trust. A system that waits too long will fail against fast or close-range threats. That balance between caution and speed is an engineering problem as much as an operational one.
Export demand will also shape production. Counter-UAS systems are attractive because the threat has spread beyond conventional state warfare. Militias, proxy forces, smugglers, terrorist groups, and hostile state actors can all use commercial or modified drones. That creates demand for systems that can defend military bases, borders, ports, convoys, energy infrastructure, and public events without requiring the cost structure of strategic air defence.
Elbit’s counter-drone hardware work shows how quickly the defence market is reorganising around low-cost aerial threats. The companies that succeed will not simply build better interceptors or stronger jammers. They will create systems that can be manufactured in quantity, updated at speed, integrated with existing command networks, and sustained while the drone threat continues to mutate.