U.S. Navy launches 81st Arleigh Burke-class destroyer USS George M. Neal to handle multiple attacks at once.

HII Ingalls Shipbuilding launched the future USS George M. Neal (DDG 131) on April 1, 2026, in Pascagoula, Mississippi, marking the transition of the 6th Flight III Arleigh Burke-class destroyer of the U.S. Navy into the water.

The launch followed completion of structural assembly and pre-float testing at Ingalls Shipbuilding, initiating outfitting and combat system activation ahead of planned 2027 commissioning. As a Flight III platform integrating the SPY-6 radar and Aegis Baseline 10, the USS George M. Neal destroyer directly enhances the U.S. Navy’s capacity to detect and engage multiple aerial and ballistic threats simultaneously.

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The modern Flight III variant originates from the cancellation of the CG(X) cruiser and the need to replace the SPY-1D(V) radar's limited performance against modern ballistic and low-observable targets. (Picture source: HII)

On April 1, 2026, HII’s Ingalls Shipbuilding launched the future USS George M. Neal (DDG 131) in Pascagoula, Mississippi, completing the transition of the fourth Flight III Arleigh Burke-class destroyer produced at this facility from land-based assembly into the water after final dry dock procedures. Prior to launch, shipbuilders finalized structural assembly, installed major components, and completed inspection cycles required for water entry. The hull was then translated into a dry dock, where alignment checks, system readiness verifications, and safety procedures were conducted before controlled flooding. The flooding operation allowed the destroyer to achieve flotation for the first time, after which it was secured to the pier.

This milestone ends the primary construction phase and initiates outfitting, system activation, and testing ahead of sea trials. The launch also marks the introduction of another Flight III unit configured for integrated air and missile defense within the U.S Navy fleet. The ship, which is the 81st destroyer of the Arleigh Burke-class and the 6th Flight III variant, is named after George Milton Neal, born August 29, 1930, in Springfield, Ohio, who served as an aviation machinist’s mate third class in Helicopter Utility Squadron One during the Korean War. On July 3, 1951, Neal participated in a helicopter rescue mission launched from HMAS Sydney to recover a downed Marine aviator near Yondong, North Korea.

Its aircraft descended below cloud cover into an area without fighter protection and was exposed to sustained anti-aircraft fire. Neal operated the rescue sling under fire and assisted in lifting the pilot, after which the helicopter was hit and forced to crash. Neal then supported both the pilot and the rescued aviator in a nine-day evasion effort under adverse terrain and weather conditions before capture. He remained a prisoner of war until his release in 1952 and later returned to the United States. Neal died on December 1, 2016, and is buried at Arlington National Cemetery, while his Navy Cross citation forms the basis for the ship’s naming. Construction of the USS George M. Neal (DDG 131) began on December 2, 2021, at Ingalls Shipbuilding, initiating steel cutting and early assembly processes within the shipyard’s fabrication facilities.

The keel was then laid on December 15, 2023, marking the formal start of hull integration and structural assembly. Over the following two years, the ship underwent modular construction, including installation of hull sections, internal compartments, propulsion foundations, and initial systems. Pre-launch preparation included structural completion, installation of major equipment, and inspection procedures to verify readiness for float-out. The vessel was then transferred into a dry dock for final staging, including alignment verification and safety checks. Following launch, the destroyer transitions into outfitting, which includes installation and activation of combat systems, propulsion systems, and onboard electronics.

Commissioning is scheduled for 2027, consistent with the build cycle of recent Arleigh Burke-class ships. The Arleigh Burke-class program originated in the early 1980s as part of a U.S Navy effort to replace aging Charles F. Adams and Farragut-class destroyers while complementing Ticonderoga-class cruisers equipped with the Aegis system. Design work began in 1980, with contracts awarded in 1985, and the lead ship, USS Arleigh Burke (DDG-51), was commissioned on July 4, 1991. The class was designed as a multi-mission surface combatant capable of anti-air warfare, anti-submarine warfare, and strike operations. Central to the design is the Aegis combat system, which integrates radar, command systems, and missile control into a unified architecture.

The ships were built with an all-steel hull and superstructure, reinforced with 130 tons of Kevlar to improve survivability compared to earlier aluminum designs. Since the commissioning of the first unit, the class has expanded to more than 70 active ships, making it the most numerous class of surface combatants in the U.S Navy. Instead of designing a new hull, the U.S Navy chose to integrate advanced systems into the existing DDG-51 design. This resulted in a progression through Flight I, Flight II, and Flight IIA configurations before reaching Flight III. The Flight III program formally began in fiscal year 2013, with initial operational capability achieved in 2024. Procurement of Flight III ships is planned to continue into the 2030s.

The concept of a Flight III variant was first explored in 1988, with plans for a larger destroyer incorporating additional vertical launch cells, expanded aviation facilities, and improved survivability features such as blast-resistant bulkheads. This initial effort was canceled in 1990 due to budget reductions and reduced demand following the end of the Cold War. The Flight III concept was revived in the 2010s after the cancellation of the CG(X) cruiser program, which had been intended to provide next-generation air defense capabilities. Therefore, the USS George M. Neal is equipped with the AN/SPY-6(V)1 Air and Missile Defense Radar, an active electronically scanned array radar consisting of multiple radar modular assemblies that provide significantly higher sensitivity compared to the earlier SPY-1 system.

The radar enables the detection of smaller targets at longer ranges and improves tracking capacity in complex environments. The ship also integrates the Aegis Baseline 10 combat system, which provides enhanced processing power and supports simultaneous engagement of multiple threats. These systems enable the destroyer to conduct integrated air and missile defense operations against ballistic missiles, cruise missiles, and aircraft. The Flight III configuration required upgrades to electrical generation capacity, increasing output per generator to about 4 MW, and the introduction of a 4,160 V power distribution system. Additional cooling capacity and internal modifications were implemented to support these systems.

The ship retains the overall hull form of earlier DDG-51 variants while accommodating these upgrades. The combat system architecture allows the ship to track and engage multiple targets simultaneously across air, surface, and ballistic domains using integrated sensor and fire-control systems. The SPY-6 radar provides increased detection sensitivity, allowing earlier identification of threats and improved discrimination between targets. Aegis Baseline 10 integrates radar data with weapons control, enabling coordinated engagement using Standard Missile variants and other interceptors. The system supports engagement of both exo-atmospheric and endo-atmospheric threats, depending on the missile configuration.

Fire control is supported by multiple radar channels, allowing concurrent engagements. Compared to earlier flights, the system offers increased processing speed and improved integration of sensor data. These capabilities are designed to address emerging threats such as advanced cruise missiles and ballistic missile systems. The USS George M. Neal has a full-load displacement of 9,217 tons, a length of 510 ft (160 m), and a beam of 66 ft (20 m), consistent with Flight IIA and Flight III variants of the class. Propulsion is provided by four General Electric LM2500 gas turbines producing about 100,000 shp, driving two shafts and enabling speeds of 31 knots (57 km/h).

The destroyer is also equipped with a 96-cell Mk 41 Vertical Launch System configured to carry Standard surface-to-air missiles, SM-3 ballistic missile interceptors, SM-6 missiles, Tomahawk cruise missiles, and RUM-139 ASROC anti-submarine weapons. Additional armament includes one 5-inch Mk 45 Mod 4 gun, one Phalanx CIWS, two Mk 38 25 mm gun systems, and four 0.50 heavy machine guns. Anti-submarine capabilities include two Mark 32 triple torpedo tubes firing Mk 46, Mk 50, or Mk 54 torpedoes. The ship can also host two MH-60R Seahawk helicopters with a dual hangar and flight deck. Crew complement is expected to reach 380 personnel, depending on the mission.

Written by Jérôme Brahy

Jérôme Brahy is a defense analyst and documentalist at Army Recognition. He specializes in naval modernization, aviation, drones, armored vehicles, and artillery, with a focus on strategic developments in the United States, China, Ukraine, Russia, Türkiye, and Belgium. His analyses go beyond the facts, providing context, identifying key actors, and explaining why defense news matters on a global scale.