IN Brief:
- GDELS will show the Pandur GBAD layered air-defence vehicle at Eurosatory 2026.
- The configuration includes a Valhalla Mangart 25 turret, missile launcher, HELMA-P laser, and multi-sensor suite.
- The programme reflects growing demand for mobile counter-UAS systems that can be industrialised quickly and delivered at scale.
General Dynamics European Land Systems will present a Pandur GBAD layered air-defence vehicle and mobile counter-UAS systems at Eurosatory 2026, reflecting the speed at which land forces are trying to add protected, mobile defence against drones and low-altitude threats.
The Pandur GBAD configuration will be shown with a Valhalla Mangart 25 turret combining an autocannon and missile launcher. It will also include the Cilas HELMA-P high-energy laser weapon for small targets at close range and a multi-sensor suite connected through GDELS’ NEVA electronic architecture.
The company’s approach centres on integrating sensors, effectors, and command-and-control systems into proven mobile and protected platforms. Armies do not only need new counter-drone weapons. They need systems that can move with formations, survive on the battlefield, connect into command networks, and be built without waiting for completely new vehicle programmes.
Pandur is suited to that approach because the vehicle family is designed around modularity. The platform is available in 6×6 and 8×8 forms, with a standardised architecture intended to support multiple variants. GDELS lists configurations including APC, SHORAD, ATGM, ambulance, mortar, special operations, electronic warfare, and other mission roles. That commonality gives air-defence variants a more credible path to production than a clean-sheet vehicle.
Layered counter-UAS systems are becoming necessary because a single effector rarely solves the problem. Cannon can address some targets at lower cost, missiles can extend reach or deal with more demanding threats, and lasers can offer a low-cost-per-shot option against selected small drones if conditions allow. Sensors, classification software, and command integration decide whether those effectors are usable at speed.
Britain’s wider air-defence production pressure, visible from Skyhammer to DragonFire, sits inside the same industrial problem. Cheap drones force defenders to think about cost per engagement, production rate, magazine depth, power supply, and maintenance cycles. Mobile platforms add the requirement to move all of that capability with manoeuvre forces.
A vehicle-mounted air-defence package brings hard engineering constraints. A turret, missile launcher, laser, sensors, power systems, cooling, datalinks, and crew workstations all compete for space, weight, power, and thermal management. Integration must account for vehicle stability, recoil, electromagnetic compatibility, shock, vibration, software timing, and safety zones. The platform still needs to drive, protect the crew, and remain maintainable in field conditions.
The Pandur GBAD also sits within a broader move toward manned-unmanned teaming. GDELS will show an integrated network centred on its Eagle 6×6 Vehicle Control Unit, bringing together unmanned ground and aerial vehicles from Alpha Robotics. The display will include WOLF unmanned ground vehicles and HAWK and HUMMINGBIRD drones. Counter-UAS is being treated as a networked force-protection task rather than a single-vehicle configuration.
European demand is already moving in that direction. Airbus and Alta Ares have linked battle-management software with tactical interceptors, while recent brigade air-defence programmes show sensors, command tools, effectors, training, and support being bought as connected layers. Vehicle makers that can convert existing families into air-defence carriers have a route into that demand, provided integration risk and cost remain controlled.
Sustainment will define operational value. A Pandur GBAD fleet would need spare turrets, cannon support, missile logistics, laser maintenance, sensor calibration, software updates, battery and power-system support, and crew training. Counter-UAS systems are vulnerable to obsolescence because drone threats evolve quickly. Manufacturers need upgrade paths that do not force a full rebuild every time sensors or effectors change.
The Pandur GBAD display points to a market in which protected vehicles become mobile nodes in layered defensive networks. If GDELS can convert modular architecture into repeatable production, the system will sit squarely within Europe’s demand for counter-drone capability that moves with the force rather than defending fixed sites alone.
