Penguin C is being tailored to monitor the fallout from disasters at nuclear powerplants

A series of subsystem upgrades – known collectively as the “Havoc” configuration – has doubled the flight endurance and payload capacity of the base VXE30 Stalker system.

San Luis Obispo, CA – May 6, 2024 – Edge Autonomy, a leading provider of uncrewed autonomous systems, announced today a major performance enhancement to the field-proven VXE30 Stalker UAS. Through a series of subsystem upgrades – known collectively as the “Havoc” configuration – Edge Autonomy has doubled the flight endurance and payload capacity of the base VXE30 Stalker system, closing the gap between the capabilities of small UAS and large UAS.

“We have been evolving the Stalker series for nearly two decades, and the VXE30 is the product of intense mission-focused innovation to meet the real needs of our customers,” said Joshua Stinson, Chief Growth Officer for Edge Autonomy. “The Havoc configuration builds on years of deployed operations and direct user feedback accumulated over more than 100,000 flight hours across six continents to provide the warfighter with an unparalleled system that is ready for use on the battlefield.” 

“Our goal was to provide a single, highly flexible UAS that could meet the needs of a wide range of operational units, from the company level to the brigade,” said Allen Gardner, CTO of Edge Autonomy. “By upgrading key subsystems on the VXE30, we can provide a solution that is light and mobile enough for small forward-deployed units while also able to hit the payload capacity, range, and endurance numbers of the higher echelons – all with the field-proven, silent, VTOL configuration UAS that our customers have relied on for years.”

With the flexibility and adaptability to host a wide variety of configurations – all without wasting time and budget on reconfiguring the airframe itself – the Havoc not only meets the demanding mission challenges faced by today’s uncrewed aerial systems but anticipates potential issues facing the battlefields of the future.

Current VXE30 operators require no additional training in order to operate the Havoc configuration, and all user interfaces remain unchanged between the various configurations of VXE30. The system      remains payload agnostic and is prepped for third party integrations through a Modular Open Systems Approach (MOSA) frequently utilized by customers to integrate new payloads and subsystems without the need for Edge Autonomy support.

“Edge Autonomy is committed to meeting the changing needs of the warfighters we support, and we are excited to see what they will accomplish with the Havoc” said John Purvis, CEO of Edge Autonomy. “We built a system that would be easily reconfigurable, giving operators equipment to meet the growing mission demands they are facing now and in the future.” 

About Edge Autonomy

Edge Autonomy is a leader in providing innovative autonomous systems, advanced optics, and resilient energy solutions to the U.S. Department of Defense, U.S. Federal Civilian Agencies, allied governments, academic institutions, and commercial entities. We believe that innovation – in all forms, from all sources, and at all stages of development – creates solutions that enable mission success. Our uncrewed technologies are used in nearly 80 countries by government, commercial, and academic customers.

Edge Autonomy has a team of 600 employees and draws on nearly four decades of proven aerospace engineering, manufacturing expertise, and advanced technology. With headquarters in San Luis Obispo, CA and nearly 300,000 square feet of manufacturing and production capabilities across the U.S. and abroad, Edge Autonomy’s experienced team delivers mission-focused results around the world.

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Most recently, the Penguin C UAV from UAV Factory has been acquired by company Clear Pulse, to be used in the event of a disaster. In such a situation, the fixed-wing UAV will perform airborne radiological surveys to detect, study and map the radiation levels. These flights will then give a better idea than before about the safety and evacuation decisions needed. Clear Pulse manufactures radiation measurement products, and its contract with UAV Factory, signed in 2018, covers delivery and various follow-up support services for the Penguin C and its ancillary equipment.

The aircraft will be operated through Clear Pulse’s subsidiary JDrone, which successfully carried out the first acceptance flight trial of the Penguin C over Fukushima in May, 2020.

About Penguin C UAS

Penguin C is a twin-boom aircraft (described in UST1, November 2014) with a 3.3 m wingspan and measuring 2.3 m long. It is built largely from carbon and fibreglass composites, which give it an MTOW of 23 kg and a payload-carrying capacity of up to 4 kg, and is launched by catapult. As mentioned, being able to fly long-endurance missions was a critical requirement for the end-user in Japan. Accordingly, Penguin C is capable of flying for up to 20 hours, at a cruising speed of 68-79 kph. Its endurance and cruise (as well as a top speed of 115 kph) are enabled by the company’s own UAV28-EFI engine (described in UST19, April/May 2018). This is a two-cylinder, two-stroke, electronically fuel-injected gasoline engine that provides up to 150 W from its starter/generator for onboard systems, payload included. It has undergone highly accelerated lifetime testing to identify and eradicate long-term points of failure that might occur after hundreds of hours of mechanical and thermal stresses, aiding the longevity of the powerplant after it is handed over to its end-user. The aircraft and engine are rated to a maximum operating altitude of 5 km. They can operate in ambient temperatures of between -40° and +50°C, in up to 5 mm/hour of rain (the Fukushima area has a wet climate). Furthermore, Penguin C can remain in contact with its GCS over 100 km, more than satisfying the project’s minimum operational range of 5 km.

A data link secures the command reception from (and data stream to) JDrone’s GCS and Clear Pulse’s radiological equipment, on the 2.3, 2.4, 2.5 or 5.8 GHz bands. However, flight control is handled autonomously, using a Piccolo autopilot from Cloud Cap Technology, freeing up the team to focus on incoming measurement data.

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