Dutch Navy Deploys V-BAT Shipborne Drone for First Time in NATO Maritime Surveillance.

The Royal Netherlands Navy has used Shield AI’s V-BAT reconnaissance drone at sea for the first time, launching the system from the amphibious transport ship HNLMS Johan de Witt during Exercise Cold Response off Norway.

Announced by the Dutch Ministry of Defence on 17 March 2026, the move turns a compact U.S.-built uncrewed aircraft into a new shipborne ISR asset designed to expand maritime situational awareness, improve route assessment, and accelerate decisions for Dutch naval commanders operating in contested waters.

Related News: U.S. V-BAT drone chosen by Netherlands to boost shipborne intelligence capability in contested maritime zones.

Royal Netherlands Navy personnel operate Shield AI's V-BAT aboard HNLMS Johan de Witt during its first at-sea deployment, marking a key step in fielding a compact shipborne ISR drone to strengthen Dutch and NATO maritime surveillance in contested waters (Picture source: Dutch Navy).

The first operational trials focused on a practical naval problem that matters in combat: every ship creates different airflow and turbulence over its helicopter deck, so launch and recovery envelopes must be validated hull by hull. Dutch officials said live imagery was received in real time during the flights, while control equipment for the fleet is being installed across eight Royal Netherlands Navy ships, showing that this is already moving beyond experimentation toward distributed service use.

V-BAT is a single-engine ducted-fan VTOL unmanned aircraft that rises vertically, then transitions into horizontal flight, giving it the endurance of a fixed-wing platform without requiring a runway, catapult, or recovery net. Shield AI lists a 3.8-meter wingspan, 2.9-meter height, 73-kilogram maximum gross takeoff weight, 18.1-kilogram payload capacity, and a launch-and-recovery footprint of about 4.6 by 4.6 meters; Dutch service material describes more than 10 hours of endurance with radar and camera, a maximum altitude above 5 kilometers, and operation by a two-person team. Public Dutch documentation also makes clear that the aircraft is not armed. In other words, its mission system is not a missile rack but a sensor suite centered on radar and electro-optical imaging, while the wider V-BAT family can also carry synthetic aperture radar, passive wide-area surveillance, and electronic-warfare payloads.

For the Netherlands, V-BAT is being fielded as an information weapon rather than a strike drone: an unarmed aircraft that extends a ship’s eyes well beyond the horizon and keeps manned helicopters free for heavier missions. In tactical terms, that means earlier detection of small surface contacts, better screening of possible shipping routes, persistent watch over an amphibious objective area, and faster cueing of boarding teams, escorts, or embarked helicopters. Shield AI and Dutch sources also emphasize AI-enabled autonomy and operation in GNSS- or communications-contested environments, a feature that sharply raises survivability against jamming and makes the system relevant to the electronic-warfare conditions seen around Europe’s eastern flank.

Why the Dutch Navy needs this drone is stated unusually clearly in its own procurement rationale. Dutch defence officials said the navy had identified a missing capability: an unmanned platform for information gathering and maritime security tasks, especially for ships assigned to NATO duties but constrained by deck and hangar space. That explains the attraction of V-BAT’s small logistics footprint. The aircraft can be stored in a few crates, assembled quickly, and launched from a confined deck area, which makes it far more suitable for frigates, amphibious ships, and other compact platforms than larger runway-dependent ISR systems. For a medium-sized navy that must stretch each hull across North Sea, Baltic, Arctic, and expeditionary commitments, that combination of endurance, compactness, and low manpower burden is strategically valuable.

The contract story is almost as important as the aircraft itself because it shows how urgently The Hague wanted the capability. Dutch service reporting says the Command of Naval Forces turned to COMMIT in late 2025 because a normal tender would have taken too long for ships needing new equipment for NATO task-group duties in early 2026. COMMIT therefore used a NATO procurement framework that allowed direct purchase from the manufacturer, compressing timelines dramatically; one Dutch account even notes that the contract was signed by email because of the pace required. Public reporting shows the program developing quickly from Shield AI’s July 2025 announcement of an initial Dutch purchase of eight V-BAT systems for the navy and marine corps to Dutch Ministry statements in March 2026 describing the acquisition as 12 drones, with the first ship classes modified in partnership with the manufacturer, DMI, and the JIVC defence IT organization.

How it will serve the fleet is already visible in the Dutch concept of operations. The V-BAT is controlled from screens inside the ship’s command space, kept on or near the helicopter deck, and launched only after airflow measurements confirm safe operating conditions for that specific hull. The Cold Response deployment is significant because it validates this model in North Atlantic and Arctic conditions rather than in a benign test range. For Dutch commanders, that creates a practical over-the-horizon scout for amphibious operations, littoral reconnaissance, convoy screening, force protection, and maritime security patrols without exposing an NH90 or a crew to the first look into uncertainty.

NATO’s revised maritime strategy explicitly prioritizes better situational awareness, stronger cooperation at sea, and the integration of lessons and capabilities across Allied fleets, while NATO’s Baltic Sentry activity is already combining national surveillance assets to protect critical undersea infrastructure in response to sabotage risks in the Baltic. The alliance notes that undersea cables carry an estimated $10 trillion in transfers every day and that 95 percent of global data flows pass through such cables, making persistent maritime sensing an operational necessity rather than a luxury. In that context, a Dutch shipborne drone that can stay aloft for hours, operate from tight decks, and keep working in contested electromagnetic conditions directly supports NATO’s need for more distributed maritime ISR in the North Sea, Baltic, and High North.

There is also a specifically European lesson here. Dutch service material notes that V-BAT has already been used by the U.S. Marine Corps and by the EU border agency Frontex, while Shield AI and Dutch officials point to Ukraine and REPMUS 2024 as proof points for its resilience and shipboard relevance. That gives the Netherlands a drone with both combat credibility and alliance familiarity. Numerically, twelve drones is not a large fleet. Operationally, however, this is a meaningful shift in Dutch naval doctrine because it inserts persistent, deck-launched, autonomy-enabled ISR into routine ship operations and shortens the sensor-to-decision cycle across multiple classes of vessel. For the Netherlands, V-BAT fills a real maritime gap; for NATO, it offers a practical model for rapidly fielding affordable, modular, interoperable surveillance capability through alliance channels. In an era when European warships must see farther, endure longer, and operate under jamming pressure, that may matter more than adding another weapon mount.

Written by Evan Lerouvillois, Defense Analyst.

Evan studied International Relations, and quickly specialized in defense and security. He is particularly interested in the influence of the defense sector on global geopolitics, and analyzes how technological innovations in defense, arms export contracts, and military strategies influence the international geopolitical scene.