UAV & Drones
Piasecki Aircraft Acquires Kargo UAV Program to Expand Autonomous Cargo Fleet
Piasecki Aircraft acquires Kaman’s Kargo UAV program to enhance autonomous cargo capabilities and develop larger Kargo II by 2027.

Piasecki Aircraft’s Strategic Acquisition and Enhancement of the Kargo UAV Program: Reshaping Autonomous Cargo Aviation
The autonomous cargo aircraft sector is undergoing rapid transformation, driven by technological innovation and increasing demand across both military and commercial markets. One of the most significant recent developments in this space is Piasecki Aircraft Corporation’s acquisition of Kaman Air Vehicles’ Kargo UAV program in April 2025. This move not only consolidates two legacies of American aerospace engineering but also sets the stage for the development of a new, larger-capacity variant, Kargo II, expected to enter the market by late 2027. As the global autonomous cargo aircraft market is projected to grow from USD 1.6 billion in 2024 to USD 19.6 billion by 2034, Piasecki’s strategic initiative is both timely and consequential.
The original Kargo UAV, developed by Kaman, is a medium-lift, vertical takeoff and landing (VTOL) unmanned aerial vehicle capable of carrying 800 pounds of cargo over 523 nautical miles. It has already been tested by the U.S. Marine Corps and Army, proving its value in autonomous logistics. With the acquisition, Piasecki gains not only the technology and intellectual property but also the operational team and established partnerships, notably with Near Earth Autonomy. The company’s Heliplex facility in Coatesville, Pennsylvania, will now serve as the center for further development and production, positioning Piasecki at the forefront of the evolving unmanned logistics landscape.
This article examines the historical context, technical specifications, market applications, financial dynamics, and future development plans associated with Piasecki’s acquisition and upgrade of the Kargo UAV program, providing a comprehensive overview of its significance in the broader context of autonomous cargo aviation.
Historical Context and Corporate Background
The roots of Piasecki Aircraft Corporation date back to 1940, when Frank Piasecki and Harold Venzie established the P-V Engineering Forum. This early venture led to the development of the PV-2, the third helicopter ever flown in the United States, and later to the iconic tandem rotor “flying banana” HRP-1. After a corporate split in 1956, Frank Piasecki formed the current Piasecki Aircraft Corporation, focusing on advanced rotorcraft and compound helicopter technologies. The original company, after several transitions, became part of Boeing Vertol, a lineage that underscores Piasecki’s enduring influence on rotorcraft design and innovation.
Kaman Corporation, on the other hand, built its reputation on unmanned helicopter systems such as the K-MAX, which delivered 4.5 million pounds of cargo for the U.S. Marine Corps in Afghanistan. This experience laid the groundwork for the Kargo UAV program, launched around 2021–2022 to address the need for more versatile and deployable unmanned cargo solutions. Kaman’s strategic decision to divest the Kargo program reflects a broader industry trend toward specialization and resource optimization, with President and CEO Ross Sealfon noting that the sale allows the technology “to find a home where it can thrive.”
The acquisition thus represents a convergence of two established aerospace innovators, each bringing decades of expertise to the table. Piasecki’s recent focus on hydrogen fuel cell propulsion and advanced VTOL technologies further positions it to lead the next generation of unmanned cargo aircraft.
The Kargo UAV Acquisition: Strategic Integration and Technical Assets
Piasecki’s acquisition of the Kargo UAV program is comprehensive, including the transfer of all intellectual property, two full-scale prototypes, and the core development team. This move also secures an ongoing partnership with Near Earth Autonomy, whose advanced flight control systems underpin the Kargo UAV’s autonomous capabilities. The relocation of R&D activities to Piasecki’s Heliplex facility in Pennsylvania consolidates resources and accelerates the path from prototype to production, with the company targeting an 18-month timeline to begin manufacturing, pending capital availability.
The Kargo UAV has already undergone autonomous flight testing with the U.S. Marine Corps and Army, validating its performance in real-world scenarios. Its autonomy suite, provided by Near Earth Autonomy, includes obstacle avoidance, precision landing, and GPS-denied navigation, all of which are critical for operations in contested or remote environments. According to John Piasecki, CEO, the acquisition aligns with the company’s broader strategy to build a family of autonomous cargo solutions, leveraging their VTOL expertise and industry partnerships to accelerate commercialization.
The partnership with Near Earth Autonomy is particularly valuable, given the longstanding collaboration between the two organizations. Their joint work dates back to Carnegie Mellon University and includes the world’s first fully autonomous man-rated helicopter demonstration in 2010. This continuity ensures that the Kargo UAV will benefit from proven autonomy technologies and ongoing innovation.
“Kaman’s Kargo UAV program has already achieved significant milestones. With our VTOL expertise, world-class Heliplex, and deep industry partnerships, we are positioned to accelerate Kargo’s transition from prototype to production.” — John Piasecki, CEO
Technical Specifications and Operational Capabilities
The Kargo UAV is engineered for flexibility and rapid deployment. Measuring 19.3 feet in length and 7.3 feet in width when stowed, it can be transported in a standard ISO shipping container. Once deployed, its four two-bladed rotors extend the aircraft to 24.4 feet in both length and width, enabling it to handle substantial payloads. The aircraft is powered by a 300-horsepower Rolls-Royce RR300 gas turbine engine, providing a maximum speed of 121 knots and operational altitudes above 10,000 feet.
Payload capacity is a key differentiator, with the Kargo UAV able to carry up to 800 pounds either internally or as an external sling load. Its range varies according to payload, with a maximum of 523 nautical miles unladen and 143 nautical miles when carrying a 600-pound load. The system’s autonomous flight suite allows for GPS-denied navigation, dynamic obstacle avoidance, and precision landing, all managed through Near Earth Autonomy’s Peregrine system. This enables safe, reliable operations in environments where traditional navigation aids may be compromised.
Operational efficiency is further enhanced by the UAV’s rapid deployment capabilities. Two personnel can prepare the system for flight in about 20 minutes, making it ideal for agile logistics in both military and commercial contexts. The modular design allows for quick adaptation to various mission profiles, from internal cargo transport to external sling loads for oversized equipment.
“We’ve been working with Near Earth Autonomy since they were within Carnegie Mellon University. We did the world’s first fully autonomous man-rated helicopter demonstration back in 2010 with the key people that are part of that company.” — John Piasecki, CEO
Market Applications and Industry Dynamics
The Kargo UAV is designed to address the growing need for agile, autonomous logistics in both defense and commercial sectors. In military applications, it supports “agile logistics” concepts, enabling rapid resupply in contested environments where traditional supply lines are vulnerable. The U.S. Marine Corps’ MARV-EL program has already awarded a $12 million contract for system development and testing, underscoring the platform’s relevance for expeditionary logistics. The UAV’s ability to operate autonomously and its compact deployment profile make it particularly valuable for distributed military operations.
Commercially, the Kargo UAV has attracted interest from sectors such as oil and gas, mining, and emergency response. The 2023 partnership with PHI Aviation, which includes a non-binding order for 50 aircraft, highlights its potential in supporting offshore energy operations. The UAV’s ability to deliver critical supplies to remote or inaccessible locations, especially when helicopters are unavailable or conditions are unsafe, offers significant operational advantages. Additional applications include medical supply transport, search and rescue support, and humanitarian aid delivery.
The broader market context is highly favorable. The global autonomous cargo aircraft market is projected to grow at a compound annual growth rate of 27.8% through 2034, with the VTOL segment alone expected to generate $8 billion by that year. The commercial rotary-wing autonomous aircraft market holds nearly 58% of the overall market share, driven by the need for efficient, flexible logistics solutions. U.S. Department of Defense spending on uncrewed vehicles reached $10.95 billion in FY2024, reflecting strong governmental support for autonomous systems.
“The Kargo UAV is designed to supplement, not replace, existing manned rotorcraft operations, performing duties that are either unsafe or uneconomical for traditional helicopters.” — PHI Aviation representative
Advanced Technologies and Partnership Ecosystems
The Kargo UAV’s technological foundation combines proven aerospace systems with next-generation autonomy. Near Earth Autonomy’s Peregrine suite enables real-time 3D environmental mapping, dynamic obstacle avoidance, and autonomous landing zone selection, even in GPS-denied conditions. The aircraft’s composite shell and lightweight aluminum structure optimize strength-to-weight ratio, while the modular payload system allows for both internal pod and external sling configurations.
The choice of a Rolls-Royce RR300 turbine engine ensures operational reliability and compatibility with standard jet fuel, prioritizing readiness and logistical simplicity. Communication and data systems enable comprehensive mission monitoring and control, supporting both autonomous and remotely supervised operations. The onboard solid-state storage facilitates detailed post-mission analysis and supports regulatory compliance efforts.
Piasecki’s ongoing collaboration with Near Earth Autonomy and other partners ensures continuous technological advancement. The company is also exploring hydrogen fuel cell integration for future platforms, building on its experience with the PA-890 helicopter and partnerships with firms like ZeroAvia. These efforts position Piasecki to adapt to emerging trends in electrification and sustainable aviation.
Future Development and Market Outlook
Looking ahead, Piasecki plans to expand the Kargo UAV family with the development of Kargo II, a larger-capacity variant slated for commercial release by late 2027. While specific payload figures have not been publicly disclosed, the focus is on addressing market demand for greater lift capabilities in both military and commercial applications. The company’s “family of systems” approach enables scalability and adaptability, leveraging common technologies across multiple platforms to serve diverse customer needs.
Production planning is already underway, with Piasecki projecting demand for over 300 aircraft across various sectors. The company’s Heliplex facility provides the infrastructure needed for full-scale manufacturing, and the 18-month timeline to production reflects both the maturity of the current design and the urgency of market demand. Regulatory engagement with the FAA is ongoing, with the goal of achieving certification for autonomous beyond-visual-line-of-sight cargo operations, a key enabler for broader commercial adoption.
Conclusion
Piasecki Aircraft Corporation’s acquisition and planned enhancement of the Kargo UAV program marks a pivotal moment in the evolution of autonomous cargo aviation. By integrating Kaman’s proven technology and development team with its own manufacturing expertise and industry partnerships, Piasecki is well-positioned to capitalize on the explosive growth projected for the autonomous cargo market. The Kargo UAV’s validated performance, robust technical foundation, and adaptability across military and commercial domains provide a strong platform for future innovation and market leadership.
As the company moves toward production and the development of Kargo II, it will play a central role in shaping the future of unmanned logistics. The combination of advanced autonomy, proven propulsion systems, and scalable manufacturing capabilities positions Piasecki to meet the evolving needs of defense and industry customers alike. The ongoing collaboration with Near Earth Autonomy and exploration of sustainable propulsion technologies further underscore its commitment to innovation and operational excellence.
FAQ
What is the Kargo UAV’s payload capacity and range?
The Kargo UAV can carry up to 800 pounds of cargo and has a maximum range of 523 nautical miles without payload. When carrying a 600-pound load, its range is approximately 143 nautical miles.
Who are the primary customers for the Kargo UAV?
The primary customers include the U.S. Marine Corps, U.S. Army, and commercial partners such as PHI Aviation, which serves the oil and gas sector. The UAV is also targeted for use in mining, emergency response, and humanitarian aid.
What are Piasecki’s future plans for the Kargo UAV program?
Piasecki plans to develop a larger-capacity variant, Kargo II, with commercial availability targeted for late 2027. The company is also pursuing regulatory certification and exploring advanced propulsion technologies for future platforms.
How does the Kargo UAV operate autonomously?
The UAV uses Near Earth Autonomy’s Peregrine system, which enables GPS-denied navigation, obstacle avoidance, and autonomous landing through real-time 3D environmental sensing and advanced flight control algorithms.
Sources:
Piasecki Aircraft,
Wikipedia – Piasecki Aircraft,
Kaman
Photo Credit: Piasecki Aircraft
UAV & Drones
DLR Opens Counter-Drone Security Center at Cochstedt Airport
DLR launched its Technology Center for Drone Security on Aug 18, 2026, following an explosive drone incident at Leipzig/Halle Airport.

This is a developing story. Information may change as official details are released.
The German Aerospace Center (DLR), in partnership with federal security and research ministries, officially opened the Technology Center for Drone Security on August 18, 2026, establishing a dedicated facility to test counter-Drones under realistic Airports conditions.
The inauguration of the facility at Magdeburg-Cochstedt Airport (CSO) and Braunschweig follows a major security breach on August 4 and 5, 2026, when an explosive-laden drone was discovered on the tarmac at Leipzig/Halle Airport (LEJ). According to a DLR press release, the new center will bring together researchers, security authorities, and industry partners to develop technologies that protect critical infrastructure from uncrewed aircraft systems (UAS) misuse and hybrid threats.
Expanding Counter-UAS Testing Capabilities
DLR announced it will invest more than 10 million euros to expand the Technology Center, a project expected to create up to 40 new jobs. The site builds upon existing infrastructure at Magdeburg-Cochstedt Airport, which DLR acquired in 2019 to establish a dedicated drone testing environment.
Following the official launch of the National Experimental Test Center for Unmanned Aircraft Systems in 2021, DLR resumed full operations at the airport in 2022. Since 2021, facility utilization has increased by approximately 20 percent annually. In 2025, the site recorded over 200 days of use, with external customers accounting for about half of the operational activity.
Federal Minister of the Interior Alexander Dobrindt emphasized the operational value of the location. He stated that researching and testing counter-drone technology directly at an active airport addresses environments where the threat situation is most sensitive.
Heightened Security Context Following Leipzig/Halle Incident
The opening of the Cochstedt facility aligns with an immediate operational need for counter-UAS defenses in Germany. During the first week of August 2026, security personnel discovered a quadcopter drone carrying semtex plastic explosives near a Ukrainian cargo aircraft at Leipzig/Halle Airport. The discovery prompted a major security alert and a temporary shutdown of the airfield.
German federal authorities are actively investigating the incident. While The Guardian reported that United States intelligence officials suspect Russian involvement in the attempted sabotage, the German government has not issued a formal accusation. The official cause and origin of the drone remain under investigation.
Dobrindt characterized the Leipzig/Halle event as a professional hybrid threat scenario representing a new level of danger for the country, underscoring the urgency of the research being conducted at the new DLR facility.
Federal and State Integration
The Technology Center represents a formal collaboration between the Federal Ministry of the Interior (BMI), the Federal Ministry of Research, Technology and Space (BMFTR), and the Federal Criminal Police Office (BKA). The joint initiative aims to streamline the transition of counter-UAS technologies from research and development into active deployment by security forces.
Anke Kaysser-Pyzalla, Chair of the DLR Executive Board, noted that the center serves as a logical continuation of the successful cooperation between federal and state police authorities. Dorothee Bär, Federal Minister of Research, Technology and Space, confirmed that her ministry already funds the existing UAS competence and test centers at the site, highlighting the joint financial and operational commitment between the research and interior ministries.
AirPro News analysis
We view the activation of the Technology Center for Drone Security as a critical step in addressing the escalating vulnerability of commercial aviation infrastructure to asymmetric threats. The recent incident at Leipzig/Halle Airport demonstrates that airports are increasingly targeted by low-cost, highly capable UAS platforms deployed for sabotage or disruption.
Testing counter-UAS systems at an active airport like Magdeburg-Cochstedt provides invaluable data that cannot be replicated in isolated airspace. Mitigating drone threats in an airport environment requires navigating complex radio frequency congestion, avoiding interference with air traffic control systems, and ensuring the safety of conventional aircraft operations. As hybrid threats continue to evolve, we expect European airport operators and regulators to accelerate the procurement and certification of the defensive technologies currently being validated at the DLR facility.
Sources: German Aerospace Center (DLR)
Photo Credit: German Aerospace Center
UAV & Drones
Dufour Aerospace Aero-200 eVTOL Targets 2027 Serial Production
Dufour Aerospace advances Aero-200 eVTOL commercialization with payload tests, BVLOS infrastructure, and logistics partnerships in Sweden and Canada.

Dufour Aerospace is transitioning its Aero-200 tilt-wing electric vertical takeoff and landing (eVTOL) aircraft program from controlled flight testing to commercial deployment, emphasizing real-world operational capabilities over isolated performance metrics.
In a press release issued on August 18, 2026, the Swiss manufacturer detailed a series of recent milestones aimed at integrating the aircraft into existing logistics and medical transport networks. The company is focusing on weather resilience, remote operations control, and strategic partnerships to prepare the Aero-200 for serial production, which is targeted for 2027.
Demonstrating payload and range capabilities
A core component of the commercialization effort involves proving the aircraft can handle demanding mission profiles. On July 10, 2026, Dufour Aerospace completed a flight campaign at its Zurich-based test facility, successfully demonstrating the Aero-200 carrying a 20-kilogram payload over a 200-kilometer range.
To support scalable Beyond Visual Line of Sight (BVLOS) operations, the company has established a remote operator room in Dübendorf, Switzerland. This infrastructure is designed to manage flights in unpredictable weather and limited infrastructure environments.
“This flight campaign illustrates the profound potential the Aero-200 has for long-range missions carrying critical cargo or high-value sensors,” said Timon Wehmann, Chief Engineer at Dufour Aerospace. “For a vertical takeoff and landing drone in this category, navigating this distance while maintaining flawless stability throughout continuous maneuvering is a remarkable achievement.”
Strategic partnerships for commercial rollout
Dufour Aerospace has aligned with international operators to build the regulatory and operational framework necessary for deployment across different regions.
On May 6, 2026, the manufacturer announced a commercial partnership with Savback Helicopters to establish a long-range drone logistics network in Sweden. The agreement included a Memorandum of Understanding (MoU) for the acquisition of three Aero-200 aircraft. Michael Savback, Founder and Chief Executive Officer of Savback Helicopters, noted that the vast distances and challenging terrain in Sweden present a unique opportunity for drone logistics, framing the partnership as a step toward future Nordic unmanned logistics.
In North America, Dufour Aerospace is working with Volatus Aerospace to develop operations control center capabilities. On May 21, 2026, the companies completed their initial integration in Canada, marking the first remotely operated flight from the Volatus control center using Dufour’s scaled-down Aero-30 drone platform.
“The focus of our work with Dufour Aerospace is on building operational capability, not promoting individual performance metrics,” said Glen Lynch, Chief Executive Officer of Volatus Aerospace. “Governments and commercial operators alike are increasingly looking for reliable, runway-independent cargo solutions that can operate in remote and challenging environments.”
Targeting medical and regional logistics
The Aero-200 is being positioned as a cost-effective alternative to light helicopters for regional logistics and medical transport. Traditional rotorcraft face high operating costs and are susceptible to weather disruptions. According to data from the European Organisation for the Safety of Air Navigation (Eurocontrol) covering 2023 and 2024, weather conditions caused an estimated 10 to 15 percent of delays across European airspace.
In the medical sector, the speed and reliability of runway-independent drones offer measurable advantages. The press release cited a 2025 MDPI paper analyzing inter-hospital emergency drone deliveries in Madrid, which found time savings of 2 to 26 minutes compared to road transport. This represents a 35 to 58 percent reduction in transit time, achieving delivery times of approximately 15 minutes even during peak traffic periods.
AirPro News analysis
We view Dufour Aerospace’s recent updates as a necessary maturation step for the eVTOL sector. The industry is moving past the era of highly choreographed technology demonstrators and entering the complex phase of operational integration. By focusing on BVLOS infrastructure, control center integration with Volatus Aerospace, and specific regional use cases with Savback Helicopters, Dufour is addressing the unglamorous but critical hurdles of commercial aviation.
The emphasis on weather resilience and payload-range validation indicates that the company is preparing for the rigorous demands of European Union Aviation Safety Agency (EASA) certification. If the Aero-200 can consistently deliver 20-kilogram payloads over 200 kilometers in varied conditions, it presents a viable economic alternative to light helicopters for specialized logistics and medical operators.
Sources: Dufour Aerospace
Photo Credit: Dufour Aerospace
UAV & Drones
Shield AI V-BAT Earns SAIL III Authorization for EU Maritime Ops
Shield AI’s V-BAT UAS secured SAIL III approval from ENAC, enabling Frontex maritime surveillance in the Central Mediterranean.

Shield AI’s V-BAT unmanned aircraft system (UAS) has secured Specific Assurance and Integrity Level III (SAIL III) authorization from the Italian Civil Aviation Authority (ENAC), marking the highest approval level issued to date in Europe for unmanned maritime operations.
The authorization, detailed in an operational report published by Shield AI on August 17, 2026, enabled a maritime surveillance mission operated by Global Sat Tech for the European Border and Coast Guard Agency (Frontex). The operations were conducted from the Italian Coast Guard offshore patrol vessel Dattilo in the Central Mediterranean Sea, validating the integration of large vertical take-off and landing (eVTOL) Drones into regular maritime service under the European Union Aviation Safety Agency (EASA) Specific Operations Risk Assessment (SORA) framework.
Operational performance and maritime integration
During the deployment, which concluded in July 2026, two V-BAT aircraft logged 150 flight hours over 19 days at sea. At peak operational tempo, the two aircraft were airborne simultaneously for a combined 20 hours per day.
The V-BATs operated at distances up to 150 kilometers from the host ship. According to Shield AI, the platform maintained a 98 percent mission-readiness rate throughout the deployment. Falling into the 50-to-100 kilogram class, the V-BAT is the largest unmanned aircraft in its weight category to be flown by Frontex from a maritime vessel.
On July 8, 2026, senior representatives from Frontex and the Italian Coast Guard observed a live search and rescue simulation. During the exercise, a V-BAT successfully located a small inflatable boat and assisted in coordinating the simulated rescue response.
Regulatory milestones and global deployment
The SAIL III authorization represents a significant regulatory milestone for beyond visual line of sight (BVLOS) operations in European airspace. Shield AI initially announced the authorization and the completion of the Frontex pilot project on July 21, 2026.
The European deployment builds on the V-BAT’s established operational record. The platform has previously been deployed aboard United States Navy and United States Coast Guard vessels and is currently in service with the Royal Netherlands Navy. It has also conducted daily flight operations in Ukraine in environments with heavy electronic jamming. Additionally, defense forces in Japan and India have selected the V-BAT for maritime and army operations, respectively.
AirPro News analysis
Securing SAIL III authorization under the EASA SORA framework is a rigorous process that requires extensive documentation of system reliability, containment strategies, and operational procedures. For Shield AI, achieving this level of approval from ENAC demonstrates that the V-BAT can meet stringent European Safety standards for BVLOS flights in complex maritime environments.
We view this deployment as a critical proof of concept for the broader adoption of Group 3 VTOL UAS in European border and coast guard operations. The ability to operate a 50-to-100 kilogram aircraft from a patrol vessel without requiring a runway or recovery net significantly expands the organic intelligence, surveillance, and reconnaissance capabilities of individual ships. The 98 percent readiness rate over 150 flight hours suggests the platform has matured sufficiently to handle the corrosive and dynamic conditions of extended maritime deployments.
Sources: Shield AI
Photo Credit: Shield AI
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