UAV & Drones
PteroDynamics Secures Royal Australian Navy Contract for Transwing VTOL Drones
PteroDynamics to deliver Transwing VTOL drones to Royal Australian Navy starting Spring 2026, enhancing autonomous maritime logistics.

This article is based on an official press release from PteroDynamics.
In mid-May 2026, U.S.-based aerospace manufacturer PteroDynamics Inc. announced it had been awarded a competitive contract by the Royal Australian Navy (RAN). According to the company’s official press release, the agreement centers on the procurement of PteroDynamics’ proprietary Transwing Vertical Take-Off and Landing (VTOL) Unmanned Aircraft Systems (UAS). Initial deliveries of the P4 Transwing model are scheduled to begin in Spring 2026.
The contract encompasses the delivery of the aircraft, comprehensive training for RAN personnel, and ongoing technical support. Furthermore, the agreement includes a built-in option for the RAN to purchase the larger, next-generation P5 Transwing systems, with deliveries potentially starting in 2027. As stated in the company’s announcement, the core objective of this procurement is clear:
…to support the RAN’s autonomous maritime distributed logistics capabilities.
This contract award follows a highly successful operational demonstration conducted in April 2025 for the Australian Defence Force (ADF) and RAN personnel. During these trials, the aircraft’s endurance, speed, rate of climb, and its ability to launch, transit, and recover payloads within confined areas over both land and water were rigorously evaluated.
Transwing Technology and Specifications
The primary differentiator of PteroDynamics’ drones is the patented “Transwing” design. This architecture was developed to solve a major logistical challenge in naval aviation: operating long-range, fixed-wing aircraft from the highly confined spaces of ship decks.
Operational Advantages in Maritime Environments
The aircraft features a unique dihedral folding-wing mechanism. During vertical takeoff and landing, the wings fold rearward, allowing the drone to operate with the vertical agility of a multirotor system. Once airborne, the wings fully extend into a fixed-wing configuration for highly efficient, high-speed forward flight. This folding mechanism allows the drone to occupy one-third or less of the ground footprint of comparable fixed-wing VTOLs. Additionally, the design provides exceptional stability, enabling launch and recovery operations in winds exceeding 30 knots and turbulent maritime conditions.
P4 and P5 Model Capabilities
The initial phase of the RAN contract involves the P4 Transwing. According to specifications reported by The Defence Blog, the P4 features a Maximum Takeoff Weight (MTOW) of 89 pounds and a maximum payload capacity of 15 pounds. It is optimized for delivering small but operationally critical cargo, such as medical supplies, repair parts, ammunition, and communications equipment, between ships or from ship to shore.
The contract’s future option involves the P5 Transwing, a significantly larger variant currently in development. Reporting from Aviation Week and Revolution.aero indicates that the P5 will feature an MTOW of 330 pounds, a payload capacity of 50 pounds, and a minimum range of 400 nautical miles. The P5 utilizes a hybrid-electric and internal combustion powertrain capable of burning JP-5 naval aviation fuel.
Historical Context and Allied Interoperability
PteroDynamics has been laying the groundwork for operations in Australia for several years. In December 2024, the company partnered with defense contractor Babcock Australasia to develop tactical UAS solutions for Australia and New Zealand. According to corporate portfolio data from Kairos Ventures, this partnership was instrumental in showcasing the Transwing to the ADF during the pivotal 2025 demonstrations.
Building on U.S. Navy Success
The RAN contract builds heavily on PteroDynamics’ established relationship with the U.S. Navy. Since 2019, the company has worked closely with the Naval Air Warfare Center Aircraft Division (NAWCAD) on the Blue Water Maritime Logistics UAS program. A major milestone was achieved in October 2023, when the Transwing successfully demonstrated autonomous flights from the deck of the USNS Burlington. Subsequently, in February 2025, the U.S. Navy expanded its contract with PteroDynamics to fund the clean-sheet design and development of the P5 Transwing model, as detailed by Revolution.aero.
AirPro News analysis
At AirPro News, we observe that this contract represents a critical transition for naval drone technology, moving definitively from the testing and demonstration phases (2023–2025) into active procurement and deployment (Spring 2026). Modern navies are increasingly focused on solving “contested logistics,” which requires the ability to resupply distributed maritime forces in hostile environments without risking human pilots.
Historically, navies have had to rely on heavy, crewed helicopters, such as the MH-60 Seahawk, to deliver small payloads. Utilizing a multi-million dollar helicopter to transport a 10-pound electronic repair part is highly inefficient. Drones like the Transwing offer a cost-effective, “just-in-time” delivery alternative. This shift frees up valuable crewed assets for combat, anti-submarine warfare, or search-and-rescue missions. Furthermore, the adoption of the Transwing by both the U.S. Navy and the Royal Australian Navy highlights a growing trend of allied forces utilizing interoperable, autonomous platforms for Indo-Pacific theater operations, aligning closely with broader AUKUS strategic initiatives.
Frequently Asked Questions
What is the Transwing?
The Transwing is a patented Vertical Take-Off and Landing (VTOL) drone design by PteroDynamics. It features wings that fold rearward for vertical flight and extend outward for efficient forward flight, minimizing its footprint on crowded ship decks.
When will the Royal Australian Navy receive the drones?
Initial deliveries of the P4 Transwing model are scheduled for Spring 2026, with options for the larger P5 model starting in 2027.
What is the payload capacity of the Transwing drones?
The P4 model can carry up to 15 pounds of cargo, while the larger P5 model (currently in development) is designed to carry up to 50 pounds over a range of 400 nautical miles.
Sources
Photo Credit: PteroDynamics
UAV & Drones
Honeywell Validates Satcom Antenna for BVLOS Drone Operations
Honeywell Aerospace, Viasat, Frequentis, and ESA validate a lightweight satcom antenna for safe BVLOS drone operations in Europe.

Honeywell Aerospace, in collaboration with Viasat, Frequentis AG, and the European Space Agency (ESA), has successfully validated a new lightweight satellite communications antenna designed to enable safe beyond visual line of sight (BVLOS) drone operations. The flight tests, announced on August 18, 2026, demonstrated the system’s ability to maintain continuous command-and-control connectivity in shared airspace by seamlessly integrating satellite and terrestrial networks.
According to a press release issued by Honeywell Aerospace, which employs 36,000 people globally and supports 10,000 customers, the technology integrates with the company’s VersaWave satcom system. This hardware provides the resilient network capabilities required for real-time flight control and conflict avoidance. The development is positioned as a foundational step toward scaling routine commercial uncrewed aircraft operations, including logistics, infrastructure inspection, and emergency response, within regulated airspace frameworks.
Flight testing and U-space integration
The antenna was developed at Honeywell’s facilities in Brno, Czechia, with flight testing conducted at the nearby Budkovice Airport. The validation flights took place within Europe’s U-space environment, a digital and automated airspace framework specifically designed to integrate uncrewed aircraft. The initiative falls under the broader scope of the ESA Iris Global program, which aims to modernize air traffic management through advanced satellite communications.
During the test campaign, operators utilized a Honeywell Ground Control Station (GCS) equipped with a ground-based Detect-and-Avoid (DAA) system. The setup successfully processed telemetry data from both the test drone and a crewed aircraft acting as an intentional intruder. The system identified potential conflicts and recommended safe route adjustments in real time.
“Flight testing at Budkovice Airport confirmed that combining satellite and terrestrial communication links ensures operators maintain positive control of the aircraft even in demanding or complex scenarios,” stated Martin Mlaskač, Senior Technical Manager at Honeywell Aerospace.
Industry collaboration and digital infrastructure
The successful validation relied on a consortium of aerospace and telecommunications entities. Frequentis AG, an Austrian provider of communication and information systems with 2,600 full-time equivalent employees, contributed to the digital infrastructure required for the tests. The company reported 2025 revenues of EUR 580 million and an earnings before interest and taxes (EBIT) of EUR 47 million.
Bernhard Kirschner, Solution Architect for Integrated Lower Airspace at Frequentis AG, noted that the demonstration highlights the necessity of strong industry collaboration to build the digital infrastructure required for safe uncrewed aviation.
Viasat provided the satellite network backbone essential for the multilink approach. Joel Klooster, Senior Vice President of Aircraft Operations and Safety at Viasat, emphasized that Uncrewed Traffic Management (UTM) integration and resilient network capabilities are core pillars of BVLOS operations rather than optional additions.
“Our ongoing collaboration in the ESA Iris program shows how advanced multilink networks can enable real-time interaction, airspace awareness, and continuity of control in live operating conditions. These are all critical elements for scalable unmanned operations,” Klooster said.
AirPro News analysis
We view the integration of lightweight satcom with ground-based DAA as a critical technical bridge for the uncrewed aviation sector. While terrestrial cellular networks offer high bandwidth for drone operations, they are susceptible to coverage gaps at altitude and in remote areas. By validating a system that seamlessly switches between terrestrial and satellite links, Honeywell and its partners are directly addressing the primary safety concern of civil aviation regulators: loss of positive control. As the industry pushes to commercialize BVLOS operations, hardware that can guarantee continuous command-and-control connectivity will likely become a baseline regulatory requirement rather than a competitive differentiator. The involvement of the ESA and the alignment with Europe’s U-space framework suggest this technology is being positioned for rapid regulatory adoption across the continent.
Sources: Honeywell Aerospace
Photo Credit: Honeywell Aerospace
UAV & Drones
Lockheed Martin NetSense 5G Drone Detection System
Lockheed Martin demonstrates NetSense, a passive AI-powered UAS detection system using existing 5G networks, targeting 2027 availability.

Lockheed Martin Corporation (LMT) has successfully demonstrated a new drones detection system that leverages existing commercial 5G cellular networks and artificial intelligence to track unauthorized Unmanned Aircraft Systems (UAS) in low-altitude airspace.
Announced in a press release on August 12, 2026, the NetSense Airspace Awareness-as-a-Service system is designed to eliminate the need for expensive, custom-built radar installations. By analyzing radio frequency (RF) disturbances on established networks, the platform offers a scalable security solution for airports, stadiums, and critical infrastructure.
Commercial partnerships and technology integration
The system relies on a coalition of commercial technology providers. Lockheed Martin developed the platform in collaboration with Verizon Communications Inc. (VZ), NVIDIA Corporation (NVDA), Keysight Technologies Inc. (KEYS), ODC, and Astris AI, a wholly owned subsidiary of Lockheed Martin.
Rather than deploying active Radar-Systems, the NetSense system operates passively. It utilizes the NVIDIA AI Aerial platform and ODC AI-native Radio Access Network (RAN) software to monitor RF signal disturbances across Verizon’s cellular network. When a UAS enters the monitored airspace, the system detects the disruption and predicts the aircraft’s flight path in real time.
“By working within the established 5G network spectrum, we’re able to collaborate with the commercial technology industry and deploy a solution that’s ready at the time of need,” said Sarah Hiza, Senior Vice President of Technology and Strategic Innovation at Lockheed Martin.
Deployment timeline and subscription model
Lockheed Martin initially introduced the NetSense prototype in March 2026. The company and its partners subsequently conducted a successful live demonstration of the system in a high-traffic urban environment in the Miami, Florida area in July 2026.
The manufacturers plans to initiate pilot deployments for select customers between the second half of 2026 and early 2027. General commercial availability is targeted for 2027. The system will be offered as a subscription service, utilizing commercial off-the-shelf (COTS) technologies to integrate directly into customers’ existing security operations.
Hiza noted the necessity of rapid development cycles for counter-drone technology to match the pace of the commercial market.
“As drones become more affordable and accessible, airspace awareness technology needs to evolve rapidly to outpace potential threats. That’s why we developed the NetSense solution.”
AirPro News analysis
We view the shift toward passive, network-based UAS detection as a critical development for airport operators. The proliferation of capable commercial drones has increased the risk of unauthorized incursions into restricted airspace, which frequently disrupt commercial flight operations and require runway closures. Traditional counter-UAS systems require significant capital expenditure and complex regulatory approvals for active radar emissions. By leveraging existing 5G infrastructure and COTS hardware, the NetSense system could substantially lower the barrier to entry for regional airports and private operators seeking comprehensive low-altitude airspace awareness without the footprint of traditional sensor arrays.
Sources: Lockheed Martin
Photo Credit: Lockheed Martin
UAV & Drones
ePropelled Receives $60M to Quadruple UAV Propulsion Capacity
A $60M U.S. government investment will expand ePropelled’s Laconia, NH facility fourfold to strengthen domestic UAV propulsion supply chains.

Electric propulsion manufacturer ePropelled will quadruple its production capacity for uncrewed aerial vehicle (UAV) systems following a $60 million investment from the U.S. government. The funding will expand the company’s manufacturing footprint in Laconia, New Hampshire, from 20,000 to 80,000 square feet.
Announced in a press release on August 11, 2026, the expansion is supported by the Industrial Base Analysis and Sustainment (IBAS) program. The initiative aims to strengthen the domestic supply chain for mission-critical drone technologies and reduce reliance on foreign suppliers for dual-use electric propulsion systems.
Scaling domestic UAV production
ePropelled specializes in electric motors, electronic speed controllers, and complete propulsion systems for uncrewed aircraft. The newly announced facility expansion will allow the manufacturer to increase its annual production capacity by a factor of four. This scale-up addresses accelerating demand across defense, public safety, logistics, and agricultural markets.
In the company statement, ePropelled CEO Nick Grewal described the investment as a significant milestone for both the company and the broader U.S. advanced manufacturing sector.
“As demand for high-performance uncrewed systems continues to accelerate, expanding our manufacturing capacity ensures that we can deliver reliable, scalable, and secure propulsion systems produced in the United States,” Grewal said. “We are proud to support the government’s objective of strengthening domestic manufacturing while helping customers across government and commercial markets deploy advanced capabilities faster.”
Supply chain security and intellectual property
The $60 million injection aligns with broader federal objectives to secure the supply chain for critical aerospace components. By funding domestic production through programs like IBAS, the U.S. government is actively working to mitigate risks associated with offshore manufacturing of dual-use technologies.
Since its founding in 2018, ePropelled has developed a substantial portfolio of intellectual property to support these manufacturing efforts. The company has generated more than 40 patents across 13 categories, focusing on power and propulsion innovations for aerospace applications.
AirPro News analysis
The $60 million investment in ePropelled highlights a growing urgency within the U.S. defense apparatus to onshore critical subcomponents for uncrewed aerial systems. While airframe manufacturing has largely remained domestic for defense applications, propulsion systems and electronic speed controllers have historically relied on international supply chains. By quadrupling ePropelled’s capacity, the Industrial Base Analysis and Sustainment program is directly addressing a known bottleneck in UAV procurement. We expect to see similar targeted investments in domestic component manufacturers as the government continues to prioritize scalable, attritable uncrewed systems.
Sources: ePropelled
Photo Credit: ePropelled
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