COUNTER-UAS · DIRECTED ENERGY
Laser-based counter-drone protection
for contested airspace.
Low-cost drones are the fastest-growing asymmetric threat to military operations and critical infrastructure. Defence costs 10–30× more than attack. Current countermeasures are failing.
Interceptors cost €50k–500k per shot. Drones cost €500. The economics are unsustainable.
Autonomous and cabled drones are immune to electronic warfare. Jamming also disrupts friendly systems.
Kinetic systems have limited magazine depth. Against coordinated swarms, they run out of ammunition.
Kinetic interceptors create fragments and collateral damage, making them unsuitable near civilian infrastructure.
“FMI considers laser-based counter-drone solutions strategically important, with growing European interest driven by their low cost per engagement and scalability against small and medium-sized UAVs.”— Jarl Petersen, Head of Section, DALO (FMI)
A modular, laser-based counter-UAS system that autonomously detects, tracks, and neutralizes hostile drones using AI-powered perception and precision optics.
Directed energy eliminates the need for kinetic interceptors. No resupply chain. No ordnance risk.
Requires only electrical power per engagement. Continuous protection without magazine limits.
Effective against autonomous, cabled, and GPS-denied platforms where electronic warfare fails.
No fragments or collateral damage. Precision targeting with defined engagement zones and safety interlocks.
| Metric | Electronic Jamming | Kinetic Interceptors | Net / Capture | Laser (Directed Energy) |
|---|---|---|---|---|
| Cost per engagement | €0–1,000 | €50k–500k+ | €5k–20k | €1–10 (electricity) |
| Vs autonomous / cabled | No | Yes | No | Yes |
| Magazine capacity | Unlimited | 1–10 shots | 1–3 shots | Unlimited |
| Engagement range | 0.5–5 km | 1–10 km | <100 m | 0.2–1 km |
| Collateral damage | Low (indiscriminate) | High (fragments) | Medium | Very low |
Modular design decouples the laser effector from the detection layer, enabling independent deployment and integration with external radar or RF-based systems.
Computer vision across visual and thermal spectra provides autonomous target acquisition. Integrates with existing radar and RF detection infrastructure.
Proprietary optical design and beam-shaping module enables precise energy delivery at variable distances from a portable, battery-powered system.
Real-time tracking and beam steering maintain lock on fast-moving targets. Configurable engagement zones with human-in-the-loop safety architecture.
Portable system at ~25 kg. Battery-powered with ~10 minutes engagement time per cycle. Fixed-site or mobile deployment configurations.
Our first functional prototype undergoing indoor tracking tests. The system autonomously detects and tracks a hovering drone using computer vision, while the precision gimbal maintains target lock. Battery-powered and portable, the MK1 validates our core architecture: modular optics, AI-driven perception, and real-time beam steering — all integrated into a compact, field-deployable unit.
Primary customers: defence organizations, critical infrastructure operators, airports, and public security authorities. Sales through defence and security integrators with 12–24 month cycles.
Our team combines deep expertise in robotics, mechanical engineering, control systems, optics integration, and real-time software — enabling fully in-house design and prototyping.
Software architecture, system control, perception integration. MSc Mechanical Engineering.
Commercial strategy, fundraising, partnerships, and product direction. MSc Mechanical Engineering.
For capability discussions, partnership inquiries, or pilot engagement opportunities.