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BQM-177A and Airbus DT25 Target Drones Tested with Hivemind AI

September 25, 2025By ePlane AI
BQM-177A and Airbus DT25 Target Drones Tested with Hivemind AI
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BQM-177A
Hivemind AI
Target Drones

BQM-177A and Airbus DT25 Target Drones Tested with Hivemind AI

Shield AI’s Hivemind artificial intelligence software has achieved a significant milestone by enabling autonomous maneuvers on both the Kratos BQM-177A and Airbus DT25 target drones. This development marks a notable advancement in unmanned aerial system capabilities, particularly for military applications.

Demonstration of Autonomous Flight Capabilities

On September 22, 2025, the U.S. Navy’s Naval Air Systems Command (NAVAIR) and Shield AI announced the successful test flight of two BQM-177A aerial targets equipped with Hivemind at the Point Mugu Sea Range in California. The demonstration, conducted on August 5, replicated threat-representative flight profiles and adversary-style maneuvers. It supported the Navy’s Collaborative Combat Aircraft (CCA) program under the Experimental Platform for Intelligent Combat (EPIC) project and represented the Navy’s first beyond-visual-range (BVR) autonomy mission on a high-speed platform.

This integration follows an August 2024 contract awarded by NAVAIR to Shield AI, tasking the company with developing a robust prototype test bed for autonomous flight operations. The demonstration validated key objectives related to manned-unmanned teaming and was overseen by the Navy’s Strike Planning and Execution (PMA-281) and Aerial Targets (PMA-208) programs. A subsequent test is planned for later this year.

NAVAIR described Hivemind as a system that enables aircraft to operate independently by leveraging real-time sensor data and onboard processing to make decisions, plan routes, and execute maneuvers without remote input. Designed as an open, modular platform, Hivemind is adaptable across a range of Department of Defense systems. Kratos, the developer of the BQM-177A, collaborated closely with Shield AI to integrate the software as part of broader development efforts.

Expanding Applications and Technological Innovations

On September 23, Shield AI announced the successful test of Airbus Defence and Space’s DT25 target drone equipped with Hivemind at Andøya, Norway. During this trial, the DT25 autonomously tracked a live-flying adversary aircraft in both permissive and degraded environments, demonstrating the software’s versatility and robustness.

Beyond these platforms, Hivemind also powers General Atomics Aeronautical Systems’ MQ-20 Avenger UCAV, which has demonstrated simulated and live Beyond Line-of-Sight (BLOS) air-to-air engagements. Additionally, Airbus’s MQ-72C Lakota unmanned rotary-wing platform recently completed its first autonomous test flight in Texas using the software.

During the BQM-177A trials, one drone showcased Advanced Vehicle Control Laws (AVCL), a Kratos technology updated to meet Navy safety and airworthiness standards. AVCL enables the aircraft to execute complex, dynamic maneuvers by translating high-level mission commands into real-time flight control inputs, thereby enhancing threat-representative capabilities. Meanwhile, the second drone performed additional autonomous behaviors, further illustrating the system’s operational flexibility.

Challenges and Industry Implications

Despite these technological advancements, integrating sophisticated AI systems like Hivemind with existing drone infrastructure presents several challenges. These include ensuring seamless system compatibility, addressing cybersecurity vulnerabilities, and navigating evolving regulatory frameworks. The defense sector has responded with increased interest from contractors and government agencies, recognizing the strategic value of advanced autonomy in military operations.

Competitors are expected to accelerate the development of similar AI-driven drone technologies and increase investment in autonomous defense solutions. As Shield AI and its partners continue to push the boundaries of autonomous flight, these trials underscore a transformative shift in military aviation, where AI-driven systems are set to play a central role in future combat operations.

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Delta Replaces Engines on Airbus Aircraft to Address Fume Concerns

Delta Replaces Engines on Airbus Aircraft to Address Fume Concerns

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Delta Air Lines Initiates Engine Part Replacements Amid Health Concerns Delta Air Lines has announced a comprehensive replacement of engine components on over 300 Airbus aircraft in response to toxic fume leaks linked to serious health issues, including brain injuries, among passengers and crew members. This initiative marks a significant intervention by a major U.S. carrier addressing a persistent and escalating safety concern within modern aviation. Background on Fume Events and Health Risks Over the past quarter-century, the Federal Aviation Administration (FAA) has documented thousands of “fume events,” incidents where hazardous fumes originating from aircraft engines infiltrate the cockpit or cabin environment. These events expose occupants to neurotoxins and other harmful chemicals, raising alarms across multiple airlines and aircraft models. The problem is not confined to a single manufacturer but has been notably associated with the widespread use of Airbus’s A320 family. The A320, introduced in the late 1980s and recognized as the world’s best-selling commercial airliner by 2019, has been at the center of recent scrutiny. Investigations, including a detailed report by the Wall Street Journal, have highlighted an increase in fume events in recent years, correlating with the prevalence of this aircraft model in global fleets. Technical Factors Behind the Leaks The source of these toxic fumes is linked to the “bleed air” system, a standard feature in nearly all commercial jets except the Boeing 787. This system draws hot, compressed air from the engines to pressurize the cabin, provide air conditioning, and prevent icing. When engines are off, such as during taxiing, an auxiliary power unit (APU) supplies the necessary electricity and air. However, engineers have raised concerns that leaks within the APU can contaminate cabin air even when the unit is inactive. Airbus has acknowledged that the integration of the APU on the A320 plays a significant role in these fume incidents. Implications for Delta and the Aviation Industry Delta’s decision to undertake extensive engine part replacements comes amid intensified regulatory scrutiny and growing passenger apprehension regarding airline safety. The airline faces operational challenges and increased financial burdens as it implements these upgrades across its fleet. Industry experts suggest that such safety issues can influence public perception, potentially affecting passenger loyalty and prompting competitors to enhance their own safety protocols and transparency. This development highlights the critical need for continuous safety improvements in aviation. Delta’s proactive measures may establish a benchmark for other carriers and could catalyze broader industry reforms aimed at mitigating the risks of toxic fume exposure in commercial air travel.
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Airbus A320neo Production Rises in September, Delivery Targets Still Challenging

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Alaska’s Ryan Air Invests in Beta Electric Aircraft

Alaska’s Ryan Air Invests in Beta Electric Aircraft

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