Unmanned Skeldar V-200 helicopter drone takes central stage at BEDEX 2026 as navies expand maritime surveillance
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Unmanned helicopter drones such as the Skeldar V-200 are expected to feature prominently at BEDEX 2026, as they are increasingly used for naval surveillance and maritime security missions.
Unmanned helicopter drones are expected to feature prominently at BEDEX 2026, as rotary UAV systems such as the Skeldar V-200 are increasingly used by navies across the globe to improve intelligence, surveillance, and reconnaissance missions (ISR), including anti-submarine warfare and mine countermeasures. Their ability to take off vertically and operate from ships or small sites expands detection range without requiring runway infrastructure, while their endurance of up to 6 hours and multi-sensor payloads allow these systems to reduce the reliance on crewed aviation.Follow Army Recognition on Google News at this link
Unmanned helicopters such as the UMS Skeldar V-200 have been increasingly used for tasks such as intelligence, surveillance, and reconnaissance missions (ISR), including anti-submarine warfare and mine countermeasures. (Picture source: Army Recognition)
At BEDEX 2026, unmanned helicopters will probably take a central place, as these drones generally occupy the tactical surveillance segment, thanks to an endurance typically ranging between four and six hours and the ability to carry multiple sensors simultaneously. Their operational value also lies in their ability to extend a force’s detection range, while reducing the exposure of personnel and lowering operating costs compared with crewed aviation assets. Medium-sized systems in particular, such as the Skeldar V-200, have become relevant for intelligence, surveillance, and reconnaissance missions (ISR), including anti-submarine warfare and mine countermeasures.
The development of unmanned helicopters began during the Cold War, as engineers experimented several remotely piloted rotorcraft for reconnaissance or target designation roles. Early systems faced limitations in flight control stability, communication bandwidth, and sensor size, which restricted operational deployment. Technological progress during the 1990s and early 2000s enabled more reliable unmanned helicopter flight through the integration of digital autopilots and stabilized electro-optical sensors. Systems such as the RQ-8 Fire Scout, developed from the Schweizer 333 helicopter, demonstrated that rotary UAVs could operate from naval vessels and conduct missions previously assigned to manned helicopters. Today, the Skeldar V-200 managed to perfect this concept, as it can even perform a fully automated take-off and landing (VTOL) on ships, even in harsh conditions, a feature that its competitors do not always possess.
Indeed, the military demand for unmanned helicopters/helicopter drones is largely driven by the need for persistent aerial surveillance over areas where conventional aircraft and ships face operational constraints. Naval patrol vessels and frigates, for example, have limited detection range for small surface contacts, particularly when monitoring fast boats or low-profile vessels involved in smuggling or piracy. Unmanned helicopters such as the V-200 address this limitation by extending the coverage tens of kilometres beyond along coastlines and land borders, where their ability to hover enables detailed observation of vehicles, infrastructure, or suspected activities. As maritime traffic density increases and naval patrol zones expand, rotary UAVs have become a key asset for situational awareness without significantly increasing the manpower or cost previously associated with manned aviation.
Unmanned helicopters like the Skeldar V-200 play an essential role because they provide persistent aerial surveillance and act as communication relays between the mothership and the dispersed drone network operating over large maritime areas. (Picture source: Skeldar)
For instance, the Belgian Navy (which is present at BEDEX 2026) conducted the first flight of its newly acquired Skeldar V-200 on December 17, 2025. The Skeldar V-200 was acquired as part of the Belgian-Dutch Replacement Mine CounterMeasure (MCM) program, which represents one of the most advanced mine warfare initiatives in Europe. The contract, awarded in March 2019 to the Belgium Naval & Robotics consortium formed by Naval Group and Exail, includes the construction of twelve new mine countermeasure vessels, six for each navy, with deliveries expected through the second half of the 2020s.
Unlike previous minehunters, these vessels, such as the M940 Oostende, operate primarily as “motherships” for large fleets of autonomous systems, with the ships coordinating unmanned surface, underwater, and aerial vehicles that detect, classify and neutralize naval mines from a distance rather than approaching the threat directly. This reflects a major shift, as fully autonomous systems dramatically improve the crew’s safety and operational performance during mine warfare missions. The ships deploy a coordinated “toolbox” of drones, including unmanned surface vehicles, autonomous underwater vehicles, and remotely operated vehicles capable of detecting and destroying mines while the mothership remains at a safe distance.
Within this architecture, unmanned helicopters like the Skeldar V-200 play an essential role because they provide persistent aerial surveillance and act as communication relays between the mothership and the dispersed drone network operating over large maritime areas. As the drone can launch directly from small shipboard landing areas of roughly 15×15 m, it provides key information about the minefield while supporting command-and-control links between autonomous systems. This airborne layer, therefore, enhances the efficiency and coordination of the entire robotic mine warfare system, enabling the vessel to manage complex unmanned operations while maintaining a safer stand-off distance from potential mines.
As a manned helicopter may need roughly 30 to 60 minutes from preparation start to take-off, the Skeldar V-200’s ability to be prepared for launch in less than 15 minutes represents one of its key advantages. (Picture source: Skeldar)
The development of the Skeldar V-200 began in 2006 when Saab initiated a cooperation with the Swiss company UMS Aero Group AG, which later led to the creation of UMS Skeldar, which managed the program before it returned entirely under Saab control. The Skeldar V-200 was then rapidly selected by six countries so far to conduct missions including maritime surveillance, border monitoring, infrastructure inspection, and disaster response. A central design objective involved the integration of modular payloads that could be installed or replaced depending on mission requirements, further lowering operating burdens for its operators.
As a manned helicopter not already prepared for flight may need roughly 30 to 60 minutes from preparation start to take-off, the Skeldar V-200’s ability to be prepared for launch in less than 15 minutes and operate for six hours represents one of the key advantages of current helicopter drones. Furthermore, a typical system configuration includes not one, but two Skeldar V-200 helicopters connected to a ground control station operated by a remote pilot and a sensor operator, with maintenance support provided by a technician, and for a significantly lower price than for a single conventional helicopter.
Like this latter, rotary UAVs could simultaneously use electro-optical sensors, radar equipment, and electronic monitoring payloads. Additional sensor options include LiDAR equipment used for terrain mapping and infrastructure inspection tasks, automatic identification system receivers, as well as electronic intelligence sensors, allowing these unmanned helicopters to collect several types of information during a single flight, improving the efficiency of surveillance missions with a radius of up to 100 kilometres.
With a mission radius of up to 100 km and dual command-and-control data links, the Skeldar V-200 can transmit real-time ISR data to a ship or a ground station during maritime surveillance missions. (Picture source: Skeldar)
For instance, the Skeldar V-200 can carry payloads reaching 40 kg, allowing the simultaneous use of a stabilized electro-optical and infrared camera turret for day and night observation combined to a maritime radar capable of detecting vessels at extended distances, while additional payload options include an active electronically scanned array radar supporting synthetic aperture radar imaging and moving target indication functions, which allow detection of objects on land or sea even in poor visibility conditions. LiDAR sensors can be installed for terrain mapping, and inspection of critical infrastructure, and electronic intelligence payloads detect and monitor communications signals or radar emissions within the surveillance area. To increase effectiveness, several automated take-off and landing procedures assist operations in confined environments such as naval flight decks, where space and landing margins are limited.
Furthermore, the Skeldar V-200 was examined for underwater detection roles through the installation of the F1MAG magnetic anomaly detection payload produced by UMag Solutions. Magnetic anomaly detectors identify disturbances in the Earth’s magnetic field created by large metallic objects such as submarines or naval mines. During the REPMUS 2025 exercise, a drone equipped with this sensor conducted detection tests against simulated targets and operational submarines. The F1MAG system incorporates automatic anomaly recognition algorithms and provides a horizontal detection range reaching at least 200 metres from the aircraft. Deploying such sensors on an unmanned helicopter allows naval forces to expand underwater surveillance coverage without assigning manned patrol aircraft to each mission, illustrating how medium-weight rotary UAVs are gradually expanding beyond visual reconnaissance tasks toward additional roles linked to maritime security and anti-submarine operations.
Current technological developments affecting unmanned helicopters increasingly focus on improving sensor integration, autonomous flight control, and communication networks. Advances in miniaturization have reduced the size and weight of surveillance radars, electro-optical sensors, and electronic monitoring equipment, enabling more and more payloads to be carried by medium-size rotary UAVs. Improvements in autopilot software and navigation systems have increased the reliability of automated launch and recovery procedures from moving ships. Communication systems capable of transmitting high-bandwidth video and sensor data now allow these aircraft to provide near real-time intelligence to naval or ground units. Therefore, systems such as the Skeldar V-200 illustrate how these technologies are combined to expand maritime security, border monitoring, and infrastructure protection tasks, and at the same time, to increase the cost-effectiveness of military assets.
Written by Jérôme Brahy
Jérôme Brahy is a defense analyst and documentalist at Army Recognition. He specializes in naval modernization, aviation, drones, armored vehicles, and artillery, with a focus on strategic developments in the United States, China, Ukraine, Russia, Türkiye, and Belgium. His analyses go beyond the facts, providing context, identifying key actors, and explaining why defense news matters on a global scale.
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Unmanned helicopter drones such as the Skeldar V-200 are expected to feature prominently at BEDEX 2026, as they are increasingly used for naval surveillance and maritime security missions.
Unmanned helicopter drones are expected to feature prominently at BEDEX 2026, as rotary UAV systems such as the Skeldar V-200 are increasingly used by navies across the globe to improve intelligence, surveillance, and reconnaissance missions (ISR), including anti-submarine warfare and mine countermeasures. Their ability to take off vertically and operate from ships or small sites expands detection range without requiring runway infrastructure, while their endurance of up to 6 hours and multi-sensor payloads allow these systems to reduce the reliance on crewed aviation.
Follow Army Recognition on Google News at this link
Unmanned helicopters such as the UMS Skeldar V-200 have been increasingly used for tasks such as intelligence, surveillance, and reconnaissance missions (ISR), including anti-submarine warfare and mine countermeasures. (Picture source: Army Recognition)
At BEDEX 2026, unmanned helicopters will probably take a central place, as these drones generally occupy the tactical surveillance segment, thanks to an endurance typically ranging between four and six hours and the ability to carry multiple sensors simultaneously. Their operational value also lies in their ability to extend a force’s detection range, while reducing the exposure of personnel and lowering operating costs compared with crewed aviation assets. Medium-sized systems in particular, such as the Skeldar V-200, have become relevant for intelligence, surveillance, and reconnaissance missions (ISR), including anti-submarine warfare and mine countermeasures.
The development of unmanned helicopters began during the Cold War, as engineers experimented several remotely piloted rotorcraft for reconnaissance or target designation roles. Early systems faced limitations in flight control stability, communication bandwidth, and sensor size, which restricted operational deployment. Technological progress during the 1990s and early 2000s enabled more reliable unmanned helicopter flight through the integration of digital autopilots and stabilized electro-optical sensors. Systems such as the RQ-8 Fire Scout, developed from the Schweizer 333 helicopter, demonstrated that rotary UAVs could operate from naval vessels and conduct missions previously assigned to manned helicopters. Today, the Skeldar V-200 managed to perfect this concept, as it can even perform a fully automated take-off and landing (VTOL) on ships, even in harsh conditions, a feature that its competitors do not always possess.
Indeed, the military demand for unmanned helicopters/helicopter drones is largely driven by the need for persistent aerial surveillance over areas where conventional aircraft and ships face operational constraints. Naval patrol vessels and frigates, for example, have limited detection range for small surface contacts, particularly when monitoring fast boats or low-profile vessels involved in smuggling or piracy. Unmanned helicopters such as the V-200 address this limitation by extending the coverage tens of kilometres beyond along coastlines and land borders, where their ability to hover enables detailed observation of vehicles, infrastructure, or suspected activities. As maritime traffic density increases and naval patrol zones expand, rotary UAVs have become a key asset for situational awareness without significantly increasing the manpower or cost previously associated with manned aviation.
Unmanned helicopters like the Skeldar V-200 play an essential role because they provide persistent aerial surveillance and act as communication relays between the mothership and the dispersed drone network operating over large maritime areas. (Picture source: Skeldar)
For instance, the Belgian Navy (which is present at BEDEX 2026) conducted the first flight of its newly acquired Skeldar V-200 on December 17, 2025. The Skeldar V-200 was acquired as part of the Belgian-Dutch Replacement Mine CounterMeasure (MCM) program, which represents one of the most advanced mine warfare initiatives in Europe. The contract, awarded in March 2019 to the Belgium Naval & Robotics consortium formed by Naval Group and Exail, includes the construction of twelve new mine countermeasure vessels, six for each navy, with deliveries expected through the second half of the 2020s.
Unlike previous minehunters, these vessels, such as the M940 Oostende, operate primarily as “motherships” for large fleets of autonomous systems, with the ships coordinating unmanned surface, underwater, and aerial vehicles that detect, classify and neutralize naval mines from a distance rather than approaching the threat directly. This reflects a major shift, as fully autonomous systems dramatically improve the crew’s safety and operational performance during mine warfare missions. The ships deploy a coordinated “toolbox” of drones, including unmanned surface vehicles, autonomous underwater vehicles, and remotely operated vehicles capable of detecting and destroying mines while the mothership remains at a safe distance.
Within this architecture, unmanned helicopters like the Skeldar V-200 play an essential role because they provide persistent aerial surveillance and act as communication relays between the mothership and the dispersed drone network operating over large maritime areas. As the drone can launch directly from small shipboard landing areas of roughly 15×15 m, it provides key information about the minefield while supporting command-and-control links between autonomous systems. This airborne layer, therefore, enhances the efficiency and coordination of the entire robotic mine warfare system, enabling the vessel to manage complex unmanned operations while maintaining a safer stand-off distance from potential mines.
As a manned helicopter may need roughly 30 to 60 minutes from preparation start to take-off, the Skeldar V-200’s ability to be prepared for launch in less than 15 minutes represents one of its key advantages. (Picture source: Skeldar)
The development of the Skeldar V-200 began in 2006 when Saab initiated a cooperation with the Swiss company UMS Aero Group AG, which later led to the creation of UMS Skeldar, which managed the program before it returned entirely under Saab control. The Skeldar V-200 was then rapidly selected by six countries so far to conduct missions including maritime surveillance, border monitoring, infrastructure inspection, and disaster response. A central design objective involved the integration of modular payloads that could be installed or replaced depending on mission requirements, further lowering operating burdens for its operators.
As a manned helicopter not already prepared for flight may need roughly 30 to 60 minutes from preparation start to take-off, the Skeldar V-200’s ability to be prepared for launch in less than 15 minutes and operate for six hours represents one of the key advantages of current helicopter drones. Furthermore, a typical system configuration includes not one, but two Skeldar V-200 helicopters connected to a ground control station operated by a remote pilot and a sensor operator, with maintenance support provided by a technician, and for a significantly lower price than for a single conventional helicopter.
Like this latter, rotary UAVs could simultaneously use electro-optical sensors, radar equipment, and electronic monitoring payloads. Additional sensor options include LiDAR equipment used for terrain mapping and infrastructure inspection tasks, automatic identification system receivers, as well as electronic intelligence sensors, allowing these unmanned helicopters to collect several types of information during a single flight, improving the efficiency of surveillance missions with a radius of up to 100 kilometres.
With a mission radius of up to 100 km and dual command-and-control data links, the Skeldar V-200 can transmit real-time ISR data to a ship or a ground station during maritime surveillance missions. (Picture source: Skeldar)
For instance, the Skeldar V-200 can carry payloads reaching 40 kg, allowing the simultaneous use of a stabilized electro-optical and infrared camera turret for day and night observation combined to a maritime radar capable of detecting vessels at extended distances, while additional payload options include an active electronically scanned array radar supporting synthetic aperture radar imaging and moving target indication functions, which allow detection of objects on land or sea even in poor visibility conditions. LiDAR sensors can be installed for terrain mapping, and inspection of critical infrastructure, and electronic intelligence payloads detect and monitor communications signals or radar emissions within the surveillance area. To increase effectiveness, several automated take-off and landing procedures assist operations in confined environments such as naval flight decks, where space and landing margins are limited.
Furthermore, the Skeldar V-200 was examined for underwater detection roles through the installation of the F1MAG magnetic anomaly detection payload produced by UMag Solutions. Magnetic anomaly detectors identify disturbances in the Earth’s magnetic field created by large metallic objects such as submarines or naval mines. During the REPMUS 2025 exercise, a drone equipped with this sensor conducted detection tests against simulated targets and operational submarines. The F1MAG system incorporates automatic anomaly recognition algorithms and provides a horizontal detection range reaching at least 200 metres from the aircraft. Deploying such sensors on an unmanned helicopter allows naval forces to expand underwater surveillance coverage without assigning manned patrol aircraft to each mission, illustrating how medium-weight rotary UAVs are gradually expanding beyond visual reconnaissance tasks toward additional roles linked to maritime security and anti-submarine operations.
Current technological developments affecting unmanned helicopters increasingly focus on improving sensor integration, autonomous flight control, and communication networks. Advances in miniaturization have reduced the size and weight of surveillance radars, electro-optical sensors, and electronic monitoring equipment, enabling more and more payloads to be carried by medium-size rotary UAVs. Improvements in autopilot software and navigation systems have increased the reliability of automated launch and recovery procedures from moving ships. Communication systems capable of transmitting high-bandwidth video and sensor data now allow these aircraft to provide near real-time intelligence to naval or ground units. Therefore, systems such as the Skeldar V-200 illustrate how these technologies are combined to expand maritime security, border monitoring, and infrastructure protection tasks, and at the same time, to increase the cost-effectiveness of military assets.
Written by Jérôme Brahy
Jérôme Brahy is a defense analyst and documentalist at Army Recognition. He specializes in naval modernization, aviation, drones, armored vehicles, and artillery, with a focus on strategic developments in the United States, China, Ukraine, Russia, Türkiye, and Belgium. His analyses go beyond the facts, providing context, identifying key actors, and explaining why defense news matters on a global scale.
