Boeing-Led Team Demonstrates A Manned-Unmanned Teaming Concepts For Naval Aviation

Boeingโ€™s MQ-25 First To Conduct Unmanned Aerial Tanking
The MQ-25 T1 test asset refuels a Navy FA-18 during a flight June 4 at MidAmerica Airport in Illinois. Boeing picture.
Boeing and Northrop Grumman conducted virtual carrier air wing teaming scenarios using MQ-25, F/A-18 and E-2D simulations including actual flight software. Manned-unmanned teaming is a key capability identified in the Navyโ€™s new Unmanned Campaign Framework.
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Boeing press release

A Boeing-led team has demonstrated manned-unmanned teaming (MUM-T) capabilities in a virtual environment using the Navyโ€™s MQ-25TM StingrayTM unmanned aerial refueler, the E-2D Advanced Hawkeye airborne command-and-control aircraft and the F/A-18 Super Hornet.

The demonstration, sponsored by the Office of Naval Research, used Northrop Grummanโ€™s portable E-2D simulator in conjunction with Boeingโ€™s F/A-18 and MQ-25 simulations to establish a data link network that was used to supervise MQ-25 flight operations.  

The simulated mission scenarios included the E-2D successfully acting as the air wing โ€œtanker kingโ€ while the MQ-25 refueled the F/A-18, in addition to supervising the MQ-25 during an intelligence, surveillance and reconnaissance mission. The E-2D was able to conduct MUM-T operations with the MQ-25 using only existing operational flight program software.

โ€œTwo of our key findings from this early demonstration with existing data links are that initial MUM-T capability between MQ-25, E-2D and F/A-18 is achievable with minimal change to the crew vehicle interface and could be integrated into earlier MQ-25 operational deployments.โ€

Don “BD” Gaddis, MQ-25 Advanced Design at Boeing

The team also demonstrated how anticipated carrier air wing concepts โ€“ such as the F/A-18 and E-2D changing the tankerโ€™s orbit station, flight path or aerial refueling store payload โ€“ were made routine and repeatable with the unmanned MQ-25. This required minimal changes to the F/A-18 cockpit display, helping to reduce pilot workload while supervising unmanned operations and providing consistency with how pilots operate and train today. 

ARABIAN SEA (July 4, 2019) An EA-18G Growler from the “Patriots” of Electronic Attack Squadron (VAQ) 140 and an E-2D Hawkeye assigned to the “Bluetails” of Carrier Airborne Early Warning Squadron (VAW) 121 fly over the Nimitz-class aircraft carrier USS Abraham Lincoln (CVN 72) during an Independence Day air power demonstration. (U.S. Navy photo by Mass Communication Specialist 3rd Class Jeff Sherman/Released)

Another more advanced MUM-T mission simulation showed how an open behavioral software framework can be used to aggregate traditional unmanned system commands into an overall autonomous mission behavior.

โ€œAs a result, pilots can call a โ€˜playโ€™ for the unmanned system, much like a coach.โ€ โ€œThis โ€˜play callโ€™ ability greatly simplifies the supervising pilotโ€™s workload and minimizes the data link exchanges required. Itโ€™s all part of building platform-agnostic, portable and reusable MUM-T software.โ€

Don “BD” Gaddis, MQ-25 Advanced Design at Boeing

MUM-T is a key future capability outlined in the Navyโ€™s Unmanned Campaign Plan. The framework is the Navyโ€™s strategy for integrating unmanned systems to provide lethal, survivable and scalable effects in support of carrier strike group operations.

โ€œThis demonstration of the E-2D Advanced Hawkeye controlling the MQ-25 builds on our experience in integrating unmanned systems into carrier flight operations. As the airborne command and control node, E-2D will be a critical component to enabling the U.S. Navyโ€™s Unmanned Campaign Framework.โ€

โ€œWe work closely with industry partners and the Navy in support of meaningful technology demonstrations that showcase E-2Dโ€™s agile environment, interoperability and unmatched command and control capabilities.โ€

Janice Zilch, vice president, Manned Airborne Surveillance Programs at Northtrop Grumman.

Future Boeing MUM-T demonstrations will involve additional mission areas, interface enhancements, autonomous behaviors and resilient, protected networks.

-End-

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