Why the FPV threat to a warehouse is unique

A warehouse or logistics hub packs more flammable load per square metre than almost any other site. Thousands of square metres under a single roof, multi-tier racking full of packaging and pallets, flammable-liquid storage, batteries of charging warehouse equipment, constant vehicle movement. For an FPV drone this is the ideal target: a tiny point of impact triggers cascading consequences. That is why warehouse drone protection is not a flavour of perimeter security — it is a distinct engineering problem.

An FPV drone (First Person View) is a light aircraft the operator flies "from the first person" using the onboard video feed. Modern FPVs are cheap, agile, fly low and can carry a payload. Their defining trait for site defence: they arrive from above and fast, while the classic warehouse tools — the fence, the barrier, the checkpoint, the ground-facing cameras — are built as if the threat always moves along the ground. This is the fundamental gap between how a hub is guarded today and where the modern drone threat actually comes from.

Why fences and guards don't cover the air

The standard security perimeter of a distribution centre is built around a ground intruder. It works very well against theft, trespass and ground-based sabotage — but against an aerial target it is useless by design:

  • Fences and barriers stop a person or a vehicle, but an FPV drone flies over them at tens of metres without touching the perimeter.
  • Checkpoints and access control govern entry points on the ground; a drone has no "entry point" — the entire sky above the site is open.
  • Ground cameras watch the gates, the driveways and the racks, not the sky; even after spotting a drone, the guard has no means to take it down.
  • Physical security (guards) react to a ground event in minutes; an FPV attack is a matter of seconds, and the guard has no tool to counter it in the air.

In other words, the entire existing security budget of a warehouse covers the ground and leaves the air wide open. Defending a logistics hub from drones means building the missing layer — detecting and defeating a target in the airspace above the site. That is the domain of counter-UAS, and it cannot be closed by adding more guards or raising the fence.

What logistics actually loses in a strike

To weigh the economics of protection you need to understand the full range of damage a single FPV breakthrough can do to a warehouse yard:

  1. Fire and spread through the racks. Ignition in a packaging- or fuel-storage zone spreads vertically up the tiers and horizontally along the aisles. Under one roof, fire quickly covers areas far beyond the initial point of impact.
  2. Hub shutdown. A logistics centre is a flow node. Knocking it out stops not one warehouse but a supply chain: shipment delays, penalties, idle transport, broken SLAs with customers.
  3. Loss of cargo and equipment. Pallets, refrigerated sections, forklifts and charging stations — high value on a compact footprint.
  4. Risk to personnel. In picking and dispatch zones people work densely and continuously; a strike on an active shift is a direct threat to life.
  5. Reputational and insurance fallout. A drone incident at a critical node means not only rebuilding, but a re-rating of insurance terms and partner trust.

The economics are simple: the cost of one drone breaking into a hub far exceeds the cost of the layer that protects it. That is why warehouses and distribution centres are among the priority counter-UAS sites — see the full list of scenarios in the Use cases section on the landing page.

How VOLKODAV detects a drone over the hub

Defence starts not with the kill but with early detection. Over a large logistics yard you need to see the target before it reaches its attack line, and to tell a real drone from a bird or a passing aircraft so you don't launch an interceptor on a false alarm.

In VOLKODAV this is handled by the pairing of observation posts and the AI server. Autonomous observation posts with cooled 360-degree thermal imagers are placed around the hub perimeter and continuously feed video to the command post. There the AI server classifies every target: multirotor, fixed-wing UAV, bird or manned aircraft. A decision is issued in 25–30 seconds at a target false-alarm rate of no more than 5%.

The key thing for a warehouse is to win time. Early detection and fast classification give the crew the seconds that ground security never has — to launch the interceptor before the FPV reaches the roof or the picking zone.

The thermal imager works at night and in poor visibility, and the posts' Arctic-grade build with autonomous power keeps 360-degree coverage over an open yard in any weather. More on the decision logic in the How it works section on the landing page.

Kinetic interception over the warehouse

Once detection is confirmed, the AI drone interceptor launches. It is a quadcopter on 10-inch props with a take-off mass of up to 3 kg: cruise speed 70 km/h, top speed 120 km/h, range from the launch point 10–12 km, up to 15 minutes airborne, operating altitudes up to 1,500 m. The interceptor destroys the target by physical ramming, with no explosives — the kill comes from the kinetic energy of the collision.

Why the absence of explosives is critical for a warehouse: over a flammable roof and dense construction, detonating a warhead would itself be a source of fire and fragmentation. A kinetic ram on approach, away from buildings, removes that problem. The engagement decision is never the machine's alone — a human is in the loop at three independent points: the operator confirms detection from the AI classification, the pilot flies the interceptor over the radio link, the operator confirms visual lock-on, and only the final closure is executed by the autonomous AI module using the onboard camera feed.

This same architecture makes the interceptor resistant to jamming: in the engagement phase it does not depend on GPS/GLONASS because it homes on the image, not on coordinates. For a detailed comparison of methods see Kinetic Drone Interception vs Jamming (EW), and the role of jamming in the overall scheme is covered in the EW section on the landing page.

Protecting staff and cargo

A logistics hub is not an empty hangar but a yard with a continuous turnover of people and vehicles. The protection layer is therefore designed to minimise risk to the site itself:

  • Interception on approach. The target is taken on the far approaches to the building, not over the picking zone where people work.
  • No secondary damage. The absence of explosives and fragments means the defence asset itself adds no fire load over the warehouse.
  • Controlled decision. Three independent confirmation points rule out the automatic engagement of a non-target object — for example a manned aircraft, which the AI classifier separates from a drone.
  • Compatibility with physical security. The counter-UAS layer does not replace guards and access control — it builds the missing aerial level on top of them.

The result is a layered defence: ground security covers the ground, and VOLKODAV covers the airspace above the site — without shifting the risk onto the cargo and staff.

System architecture for a hub

Each site gets its own configuration depending on area, building height and perimeter length. The reference architecture for a 16+ km perimeter includes:

ElementRole at the warehouse
CP — command postAI video-classification server, operator workstation, power up to 10 kW with UPS
OP ×7 — observation postsCooled 360-degree thermal imager around the hub perimeter, Arctic-grade build, autonomous power
RRG ×4 — rapid-response groupsGround control station, pilot console, crew of 2, 24/7 mode
Interceptor drone ×100Video camera + onboard autonomous AI for final target lock-on

For a compact distribution centre the configuration scales down; for a large multi-temperature hub with a long perimeter it scales up. The exact composition is determined during the audit. The system's technical parameters are gathered in the Specs section on the landing page.

Deployment without stopping operations

Logistics cannot afford downtime, so protection is deployed in parallel with hub operations. The full cycle takes 30–45 days:

  1. Site audit (3–5 days) — survey of the perimeter and approaches, threat assessment, architecture sizing for the specific yard and altitude profile.
  2. Contract — fixing the system composition, timelines and service terms.
  3. Preparation and logistics (20–30 days) — assembly, delivery, installation of posts around the perimeter and of the command post, and AI-classification tuning, with no interference in warehouse processes.
  4. 24/7 duty — a crew of 8 (5 UAV operators and 3 technicians, each with at least one year of drone-interception experience) goes on round-the-clock watch.

The layer integrates on top of existing physical security and access control without halting inbound and outbound operations. For how the same AI core serves both security and civilian infrastructure-monitoring tasks, read One AI Module, Two Missions.

Conclusion

A warehouse or logistics hub is a priority target for an FPV drone precisely because of the combination of fuel load, dense construction and the presence of people. Yet the entire familiar security perimeter — fence, checkpoint, CCTV, guards — covers the ground and leaves the air wide open. The missing level can only be built with counter-UAS.

VOLKODAV closes the airspace over the hub across the full chain: early thermal detection with AI classification in 25–30 seconds, kinetic interception without explosives on approach, a human in the loop at three points, and resistance to jamming. That gives logistics what no fence or guard can — real protection against a strike from above, without shifting the risk onto cargo and staff.