Polish Navy selects V-BAT for maritime surveillance missions

Polish Navy selects V-BAT for maritime surveillance missions

Poland has selected V-BAT systems for Polish naval surveillance missions. The ship-compatible VTOL UAS gives the Polish Navy a compact ISR option for Baltic operations, where deck footprint, endurance, electronic warfare resilience, supportability, and rapid maintenance shape operational value.


IN Brief:

  • Poland’s Armament Agency has selected Shield AI’s V-BAT VTOL UAS for Polish Navy operations.
  • The system is designed for shipboard launch and recovery, with more than 12 hours of endurance and a heavy-fuel engine.
  • Naval demand is growing for compact uncrewed ISR systems that can operate from constrained decks and austere sites.

The Polish Navy has selected Shield AI’s V-BAT vertical take-off and landing uncrewed aircraft system for maritime operations, adding a compact shipborne ISR capability to Poland’s Baltic security architecture.

V-BAT is a ducted-fan VTOL system designed for launch and recovery from small decks, confined land sites, and austere operating locations. It is promoted with more than 12 hours of endurance, a heavy-fuel engine, and operation in contested electromagnetic environments. Those characteristics are well suited to the Baltic, where maritime surveillance is shaped by dense traffic, shallow water, energy infrastructure, port access, electronic warfare, and grey-zone activity.

The selection gives Poland a route to persistent ISR without the deck, hangar, or support footprint of larger uncrewed aircraft. That distinction is critical for smaller naval vessels. Shipborne UAS procurement can falter when aircraft performance is separated from launch recovery, storage, maintenance, and operator workload. A system that cannot be handled safely on deck or maintained by a small crew will struggle to remain useful in routine maritime operations.

V-BAT’s enclosed-rotor configuration addresses part of that challenge. By avoiding exposed rotors and using a tail-sitting launch and recovery profile, the aircraft can operate from constrained areas where runways, catapults, or larger rotary-wing systems are impractical. For manufacturers and systems integrators, the engineering focus shifts toward deck-handling equipment, securing arrangements, weather limits, datalink management, payload integration, and shipboard support tools.

The Polish procurement fits a wider move toward lower-cost maritime surveillance. Navies are being asked to monitor more water, more infrastructure, and more ambiguous activity without relying exclusively on crewed maritime patrol aircraft, helicopters, or large UAVs. Small VTOL systems can extend the sensor reach of patrol vessels, support targeting, monitor cables and pipelines, and provide commanders with a more persistent picture of the littoral environment.

Autonomy is also moving from demonstration into procurement. Shield AI’s wider European activity, including Hivemind integration work in Spanish UAS systems, shows how buyers are looking for aircraft that can navigate, gather data, and continue missions in degraded communications environments. The Polish Navy’s requirement sits in the same family of needs, but adds maritime handling, corrosion, vibration, and confined-deck operations to the equation.

The industrial footprint extends beyond airframe delivery. V-BAT adoption creates demand for payload packages, control stations, datalinks, spares, training systems, operator certification, mission-planning software, and depot-level repair. If the system becomes part of Poland’s standing maritime surveillance posture, sustainment will quickly become as important as the initial aircraft batch.

A local support route may also become attractive. Poland has pushed for deeper domestic involvement across defence production and sustainment, while uncrewed systems often benefit from repair capacity close to the user. Shipborne UAS fleets generate wear in ways that differ from land-based operations: salt exposure, deck impacts, vibration, storage constraints, and weather all affect maintenance planning. Rapid repair of propulsion units, sensors, airframes, and ground-control elements can make the difference between operational availability and a parked system.

The Baltic environment will be a demanding test. Electronic warfare resilience, GPS degradation, datalink reliability, and autonomous recovery modes are no longer optional in the region. A maritime VTOL UAS has to work when the spectrum is contested and when the ship cannot slow operations to recover a struggling aircraft. Manufacturing quality, software assurance, operator training, and field support are therefore directly tied to mission success.

Poland’s V-BAT selection is a compact procurement, but it reflects a larger naval trend. Maritime forces are adding uncrewed eyes at the edge of the fleet, and the strongest systems will be those that fit real decks, survive rough handling, and provide useful data without dragging a heavy support tail behind them.