Command
Fuses radar, EO, RF and equipment status into one air picture. Assigns threat levels, cues sensors and effectors, and logs every engagement.
Counter-UAS for critical infrastructure
Small drones have turned the sky above critical sites into an attack surface. AEROTEGIS detects them at 5 km, decides in under five seconds, and responds with radio jamming, laser jamming or a hard kill — without shutting down the site around it.
Radar, EO and RF, fused into one air picture.
From detection to a cued response.
RF, laser jamming, laser kill and interceptor.
Small UAVs above the building line.
A quadcopter costs less than a tank round and can shut down a substation, map a refinery or carry a warhead. The attacks that matter arrive low, slow and from several directions at once.
Terminal dive from above the building line.
Highest priority. Detect and intercept immediately.
Fast, agile, flown to a specific target.
RF jam, then hard kill if it keeps closing.
Hovering EO payload, often launched nearby.
Identify the operator, jam and force a landing.
Under the canopy, below radar and sight lines.
Distributed EO and gap-filling early warning.
The system is built as a single command-and-control loop, not a stack of independent devices. Radar, EO, RF and effectors share one air picture and one engagement logic.
Fuses radar, EO, RF and equipment status into one air picture. Assigns threat levels, cues sensors and effectors, and logs every engagement.
Surveillance radar above the building line, EO search below it, and a distributed EO mesh under the canopy — three layers, one track.
RF jamming at 5 km, drone-on-drone interception at 3 km, laser jamming at 2 km and laser kill at 1.5 km. Human authorization is configurable for every hard-kill step.
Human-in-the-loop control is configurable at every step.
A single sensor cannot cover a complex site. Each altitude band has its own clutter, its own threats and its own best response.
Read the system designTypical threats
Loitering munitions, FPV kamikaze drones, medium- and long-range low-altitude strike.
Deployed means
Long-range surveillance radar, long-range EO reconnaissance, directional RF jamming, drone interceptor and laser effectors.
Typical threats
Commercial camera drones, bionic bird drones and short-range low-altitude reconnaissance.
Deployed means
EO search first, supported by cooperative multi-sensor detection and compact detection-and-jamming units.
Typical threats
Small civilian drones, fiber-optic drones and short-range very-low-altitude covert infiltration.
Deployed means
Distributed wide-field EO sensors and gap-filling early warning along the perimeter and under tree cover.
Six production units cover detection, tracking and laser response. Deploy them as a full site system, or start with the layer you need.
The layout follows the terrain: high points above the building line, elevated gap-fillers inside the perimeter, and a low-power EO mesh under the canopy. Every position runs edge computing and can keep operating if the link drops.
Rooftops and towers carry the surveillance radar, long-range EO and laser effectors. This is where the earliest warning and the longest engagement ranges come from.
Elevated points inside the perimeter fill the shadow cast by buildings and terrain. EO search and compact detection-and-jamming units cover the approach lanes.
A distributed mesh of wide-field EO sensors watches the last few hundred metres, where radar cannot see and a drone launched nearby leaves little reaction time.
The same architecture adapts to any fixed site with a defined perimeter and a reason to keep small drones out.
Tank farms, refineries, substations and pipelines.
Approach airspace and perimeter roads.
Crane clutter, salt air and mixed traffic.
Contraband delivery over the wall.
Remote sites and temporary positions.
Roof plant, cooling yards and fences.
Outdoor equipment is rated from −40 °C to +55 °C, operates in 20 m/s wind and survives 33 m/s. Rain, mould, salt spray, humidity and coastal air are part of the design brief.
RF and laser engagement is confined by firing tables, frequency windows and predicted debris-fall zones. The command layer records every step, and human authorization can be required for any hard kill.
How collateral damage is controlledInsights
We write about what can be verified on site: ranges, reaction time, false alarms and limits of use. Every article links to a product or a project stage.

An airport cannot be shut down with a jammer: radio navigation, ATC links and civil traffic. How layered airport protection actually works.
Read
Why the price of a counter-drone system is not the price of a radar: survey, masts, power, integration, training, service and cost per engagement.
Read
From the threat model and 3D survey to rules of engagement: five steps that determine whether the system still works a year after installation.
ReadTell us what you are protecting, the approximate perimeter and the threats you are seeing. We will come back with a layered configuration and a deployment sketch.