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GA-ASI MQ-9 Operations Relocate to Fargo Airport in 2026

GA-ASI and CBP move MQ-9 operations to Hector International Airport through September 2026 during Grand Forks AFB runway construction.

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General Atomics Aeronautical Systems, Inc. (GA-ASI) and U.S. Customs and Border Protection (CBP) have temporarily relocated their MQ-9 remotely piloted aircraft operations to Hector International Airport (FAR) in Fargo, North Dakota, ensuring critical training and border security missions continue during runway construction at Grand Forks Air Force Base.

The operational shift began on April 21, 2026, and is scheduled to conclude on September 30, 2026. According to a press release issued by GA-ASI, the move represents a rare instance of large, non-U.S. government uncrewed aircraft operating regularly at an active commercial and international airport alongside conventional aviation traffic.

Infrastructure updates prompt operational shift

Grand Forks Air Force Base is currently undergoing a major runway resurfacing project. This infrastructure work temporarily closed the runway utilized by GA-ASI’s Flight Test and Training Center, necessitating the 80-mile relocation south to Fargo.

The temporary base at Fargo Jet Center allows GA-ASI to maintain its pilot training and systems testing schedules. It also ensures that CBP Air and Marine Operations can continue their border protection missions without interruption. Dave Fulcher, Director of Air and Marine Operations for CBP’s National Air Security Operations Center-Grand Forks, noted that the partnership is vital to their law enforcement mission and community protection.

Integrating uncrewed systems into commercial airspace

Hector International Airports already hosts daily MQ-9 operations conducted by the North Dakota Air National Guard’s 119th Wing. The addition of GA-ASI’s company-owned aircraft builds upon this existing framework. Air traffic controllers at the airport manage the MQ-9 traffic using standard protocols, demonstrating the feasibility of mixed-use airspace.

GA-ASI President David R. Alexander highlighted the technological maturity enabling this integration.

“As our MQ-9s have evolved, they have become more and more like manned aircraft, with the remote pilot having the same level of situational and traffic awareness that you would find on an airliner,” Alexander stated.

Local aviation leaders echoed the significance of the collaboration. Shawn Dobberstein, Executive Director of Hector International Airport, described the integration of additional MQ-9 flights alongside commercial and general aviation activity as the next chapter in the region’s leadership in uncrewed aircraft systems operations. Jim Sweeney, President of Fargo Jet Center, added that the facility is honored to host the teams driving this work forward.

AirPro News analysis

The temporary relocation of GA-ASI’s MQ-9 operations to Hector International Airport serves as a practical stress test for the integration of large uncrewed aircraft systems (UAS) into standard commercial airspace. While military and government-operated drones have established procedures for operating in controlled airspace, the routine inclusion of company-owned, non-government uncrewed aircraft at a busy civilian airport remains uncommon. We view this five-month operational window as a valuable case study for regulators and air navigation service providers. The data and operational experience gathered in Fargo through September 2026 will likely inform future Federal Aviation Administration (FAA) policies regarding the normalization of UAS traffic in mixed-use airspace environments.

Sources: General Atomics Aeronautical Systems, Inc.

Photo Credit: General Atomics Aeronautical Systems, Inc.

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UAV & Drones

Vigilant Aerospace Completes FlightHorizon PILOT DAA Flight Tests

Vigilant Aerospace tests FlightHorizon PILOT onboard detect-and-avoid system for drones ahead of FAA Part 108 BVLOS rulemaking.

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Vigilant Aerospace Systems has completed a series of flight tests and demonstrations for its FlightHorizon PILOT system, an onboard detect-and-avoid (DAA) technology designed for uncrewed aircraft systems (UAS). The June 19, 2026, announcement details a technical milestone for the integration of autonomous drones into national airspace.

The tests, conducted at Oklahoma State University’s Uncrewed Aircraft Flight Station, demonstrated the system’s ability to track aircraft and calculate avoidance maneuvers using a low-power onboard computer. In a press release issued by the company, Vigilant Aerospace positioned the technology as a critical enabler for Beyond Visual Line of Sight (BVLOS) operations ahead of the FAA’s anticipated Part 108 flight rules.

System architecture and testing parameters

The recent flight tests evaluated two distinct versions of the technology. FlightHorizon PILOT-C is designed for cooperative airspace, utilizing transponders and digital radio receivers to track nearby traffic. FlightHorizon PILOT-M targets non-cooperative airspace by integrating additional sensors, including onboard radar, to detect aircraft lacking active transponders.

The core software is based on two licensed patents from the National Aeronautics and Space Administration (NASA). During the demonstrations, the system successfully processed sensor data through a single-board computer to execute avoidance maneuvers.

“These most recent flight test milestones provide a path to enabling the industry to execute safe beyond visual line-of-sight flight for both small and large UAS, with fully onboard safety systems,” said Kraettli L. Epperson, CEO of Vigilant Aerospace Systems.

Development pathway and regulatory alignment

The FlightHorizon PILOT system originated as a military project. Vigilant Aerospace initially developed the technology for the United States Air Force (USAF) under a Small Business Innovation Research (SBIR) contract. The transition to a civilian application received financial support through an Industry Innovation Program grant from the Oklahoma Center for the Advancement of Science and Technology (OCAST).

The commercialization of onboard DAA systems aligns with shifting regulatory frameworks. The FAA is currently drafting the Part 108 rule, which will establish standardized regulations for BVLOS drone operations in the US. Equipment capable of autonomous collision avoidance is expected to be a foundational requirement for operators seeking certification under the new framework.

AirPro News analysis

The successful demonstration of a low-footprint DAA system addresses one of the most persistent technical bottlenecks in the commercial drone sector. While ground-based radar and observer networks have facilitated early BVLOS waivers, scaling commercial operations requires the aircraft to carry its own separation assurance technology. If the FAA’s upcoming Part 108 rule mandates onboard DAA for specific operational risk categories, systems like FlightHorizon PILOT will transition from experimental capabilities to mandatory compliance equipment. We expect the market for lightweight, multi-sensor DAA suites to accelerate rapidly as the rulemaking process concludes.

Sources: Vigilant Aerospace Systems

Photo Credit: Vigilant Aerospace Systems

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UAV & Drones

ERC System Unveils Victor U250 Hybrid-Electric Cargo Drone

ERC System launched the Victor U250 cargo drone at ILA Berlin 2026, targeting 250 kg payload and military logistics gaps.

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Munich-based advanced air mobility startup ERC System unveiled the Victor U250, a hybrid-electric heavy-lift cargo drone, at the ILA Berlin Air Show on June 10, 2026. Concurrently, the company signed a Memorandum of Understanding with defense contractor Rheinmetall and the German State of North Rhine-Westphalia to establish a dedicated production facility for the uncrewed aircraft.

In a press release issued by ERC System, the company detailed that the aircraft is designed to bridge a critical logistics gap for military and disaster-response operators. The platform targets the payload space between small uncrewed aerial vehicles and conventional heavy-lift helicopters, utilizing a hybrid-electric propulsion system that combines infrastructure-independent vertical takeoff capabilities with the speed and range of fixed-wing flight.

Technical specifications and capabilities

The Victor U250, along with its military variant designated the U250-M, is designed with a lift-and-cruise architecture. Key specifications released by the manufacturer include:

  • Payload capacity: 250 kilograms (551 pounds)
  • Flight range: 300 kilometers (186 miles)
  • Cruise speed: 250 kilometers per hour (155 miles per hour)

Reporting by Aviation Week indicates the drone has a wingspan of approximately 8 meters (26 feet) and is sized to fit inside a standard 20-foot ISO shipping container for rapid transportability. The cargo bay accommodates two ISO-standard pallets and features front-loading access with aerial drop capabilities.

ERC System Chief Commercial Officer Maximilian Oligschläger outlined the market rationale to Aviation Week:

“Militaries have identified a gap. There are a lot of drones that can carry 20 kg, and above 500 kg there are helicopters, but there are very few products that can carry 150-300 kg vertically.”

Production scaling and Rheinmetall partnership

To support the industrialization of the Victor platform, ERC System secured a strategic partnership with Rheinmetall. The Memorandum of Understanding, signed alongside representatives from North Rhine-Westphalia, outlines plans to build a manufacturing facility in the region.

In a statement released by Rheinmetall, CEO Armin Papperger noted the agreement lays the foundation for scaling the Victor U250 technologically and industrially within Germany. The planned facility is expected to create a three-digit number of jobs by 2029. Aviation Week reported that the partners aim to scale production to approximately 250 aircraft annually by 2032.

Certification pathway and flight testing

ERC System plans to begin flight testing the first Victor prototype in the third quarter of 2026, with initial deliveries targeted for 2028. The program builds on data gathered from the company’s Romeo flight demonstrator.

According to AIN, the Romeo prototype weighs approximately 2.7 tonnes, making it the heaviest uncrewed electric vertical takeoff and landing (eVTOL) aircraft currently flying in the European Union. The demonstrator has been operating under the Specific Operations Risk Assessment (SORA) SAIL III stage established by the European Union Aviation Safety Agency (EASA). ERC System expects additional Victor aircraft to join the flight test program in 2027 to support further EASA SORA approvals, having already applied for a Design Verification Report under the SAIL IV stage.

AirPro News analysis

The launch of the Victor U250 highlights a distinct pivot within the European advanced air mobility sector toward dual-use and defense applications. As capital markets for commercial passenger eVTOLs tighten, startups are finding immediate traction by addressing the tactical logistics requirements of European militaries. By partnering with an established defense prime like Rheinmetall, ERC System mitigates the manufacturing scale-up risks that have historically bottlenecked aerospace startups. This industrial backing positions the Victor U250 as a viable near-term procurement option rather than a distant conceptual project.

Sources: ERC System

Photo Credit: ERC System

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UAV & Drones

Thales and AURA AERO Partner on Enbata MALE Drone ISR

Thales and AURA AERO announce a partnership to equip the Enbata MALE drone with AESA radar and electronic warfare systems.

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French aerospace manufacturers Thales Group and AURA AERO announced a partnership on June 16, 2026, to equip the newly unveiled Enbata Medium Altitude Long Endurance (MALE) drone with advanced airborne surveillance radar and electronic warfare systems.

The collaboration, detailed in a Thales press release, aims to provide the French Armed Forces with a sovereign, cost-effective Intelligence, Surveillance, and Reconnaissance (ISR) platform capable of operating in complex electromagnetic environments. The announcement coincides with the Eurosatory 2026 defense exhibition in Paris, where AURA M, the defense subsidiary of AURA AERO, revealed the finalized design of the Enbata aircraft.

Enbata Drones specifications and design

AURA AERO initially launched its military drone initiative at the Paris Air Show on June 17, 2025, leveraging technological foundations from its civil aviation programs, including the Integral trainer and ERA regional aircraft. The resulting platform, managed by the AURA M subsidiary under the leadership of retired General Stéphane Mille, features a simple metal fuselage and composite wings designed for deployment from rudimentary airfields.

According to technical specifications released by AURA M, the Enbata drone features:

  • Maximum endurance of 55 hours
  • Maximum payload capacity of 1,050 kg (including fuel and mission load)
  • Operational altitude of 25,000 feet
  • Cruise speed of 160 knots true airspeed (ktas)
  • Wingspan of 17 meters

The system is engineered to be transportable within a standard 40-foot shipping container and can be deployed via military transport aircraft such as the Airbus A400M. AURA M projects the first flight of the Enbata drone will occur in 2026.

Thales AirMaster C and electronic warfare integration

Under the partnership agreement, Thales will supply the Enbata platform with its AirMaster C airborne surveillance radar and a suite of electronic warfare solutions. The AirMaster C utilizes an Active Electronically Scanned Array (AESA) architecture integrated with onboard artificial intelligence. This configuration enables the radar to perform autonomous target classification and filter data at the system level, reducing the volume of raw information transmitted to ground control stations.

Thales Vice-President of Intelligence, Surveillance and Reconnaissance activities Marie Gayrel stated that combining the Enbata drone with Thales radar and electronic warfare capabilities provides armed forces with a sovereign ISR solution.

“Through this partnership, Thales once again demonstrates its ability to equip drones with next-generation combat-proven electronic warfare and radar solutions developed entirely in France, leveraging Artificial Intelligence to further enhance operational capabilities,” Gayrel said.

The initial integration of Thales equipment into the Enbata platform is scheduled to take place between 2026 and 2027.

AirPro News analysis

The partnership between Thales and AURA AERO highlights a growing emphasis within the French defense sector on domestic supply chains and sovereign technological capabilities. By adapting civil aviation designs for military applications, AURA AERO is attempting to bypass the lengthy and expensive development cycles typical of clean-sheet military aircraft programs. If the 2026 first flight and subsequent systems integration proceed on schedule, the Enbata could offer the French Ministry of the Armed Forces and the Direction Générale de l’Armement (DGA) a lower-cost, rapidly deployable alternative to larger, more complex MALE platforms currently dominating the market. We view the inclusion of Thales AESA and AI-driven radar technology as a critical factor in making this cost-effective airframe viable for modern, data-heavy ISR missions.

Sources: Thales Group

Photo Credit: Thales Group

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