- The U.S. Navy successfully remote-controlled the MQ-25A from an aircraft carrier over 2,100 miles away.
- The test demonstrated the communication and command systems between the carrier and the drone.
- The MQ-25A will support F/A-18E/F Super Hornets with aerial refueling.
- Future plans include integrating more unmanned aircraft into carrier operations.
The U.S. Navy has successfully remote-controlled the MQ-25A Stingray drone from an aircraft carrier located over 2,100 miles away, marking a new milestone in integrating drones into carrier operations. The test was conducted aboard the Nimitz-class aircraft carrier USS Ronald Reagan operating in the Pacific, while the MQ-25A test aircraft was located at Boeing facilities in Mascoutah, Illinois. During initial at-sea trials, operators aboard the carrier established a beyond-line-of-sight connection with the aircraft via satellite networks using the ship's Unmanned Air Warfare Center (UAWC).
The Navy described this event as its first successful test connecting a moving carrier control station with the MQ-25A aircraft.
First Successful Remote Control Test
This demonstration tested the communication and command systems necessary for future carrier-based drone operations. The connection utilized an extended low Earth orbit (pLEO) satellite network, relying on satellites relatively close to Earth to support long-distance communications. The carrier's UAWC established this connection using the MD-5C ground control station. The system integrates the Navy's command, control, communications, computers, and intelligence network with hardware and software developed by Lockheed Martin and other government production facilities. The MD-5C is designed to provide command and control for the MQ-25A and potentially other unmanned aircraft that can operate from U.S. Navy aircraft carriers.
This demonstration is part of a series of tests aimed at validating the procedures, networks, and interfaces required to operate the Stingray from an aircraft carrier. Earlier tests included assessments during the ship's docking and underway periods. This work involved the Navy's Unmanned Carrier Aviation Program Office and an integration test team that included professionals from the Navy, Boeing, and Lockheed Martin. "This is the first connection established while underway between the UAWC on the carrier and the MQ-25A aircraft, proving that future carrier air wings are becoming a reality," said Captain Daniel Fucito, program manager for the Navy's Unmanned Carrier Aviation Program Office.
said Captain Daniel Fucito, program manager for the Navy's Unmanned Carrier Aviation Program Office.
Future Role of the MQ-25A
While this test demonstrated the capabilities for remote connection and control, the Navy did not report any instances of autonomous flight, aerial refueling operations, or carrier landings during this event. The development of the MQ-25A Stingray aims to provide aerial refueling for U.S. Navy aircraft, thereby reducing the need to allocate manned fighter jets for refueling missions. The Navy expects this drone to support F/A-18E/F Super Hornets, allowing them to remain airborne longer and operate farther from the carrier. Using dedicated unmanned refueling aircraft will also enable more Super Hornets to be available for combat missions without the need to carry extra fuel for other aircraft.
The MQ-25A is expected to become the Navy's first operational carrier-based unmanned aerial refueling aircraft and lay the groundwork for integrating more unmanned aircraft into future carrier air wings. The latest demonstration validated a critical component of the program: the ability to maintain command connections between an operating carrier and a remote aircraft. Further testing will be necessary to determine the system's performance in routine flight operations and carrier missions.
Impact of Unmanned Refueling Aircraft on Naval Operations
The successful remote control test of the MQ-25A unmanned refueling aircraft demonstrates the U.S. Navy's advancements in drone technology, particularly in carrier operations. This not only enhances operational efficiency but also reduces reliance on manned fighter jets, allowing more resources to focus on combat missions. Additionally, the development of this technology provides a crucial foundation for future drone integration, potentially transforming naval operational models and enhancing flexibility and sustained combat capability in modern warfare.