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Video Above: Modernized DDG(X) Destroyer Warship Designed to Fight into 2060s and Beyond

*A top Warrior Maven article. Republished for viewer interest

By Kris Osborn - President & Editor-In-Chief, Warrior Maven

(Washington, D.C) Torpedo-armed submarines need to locate and attack enemy surface ships and submarines, undersea drones need to detect mines and enemy submarines, and surface ships need to launch massive offensive attacks, all while simultaneously networking with unmanned systems and, perhaps most importantly of all, deterring incoming enemy anti-ship missiles.

It is a multi-domain focus for the Navy, operating within a conceptual framework calling for a heavily armed, yet distributed and highly networked fleet. It would be safe to say that “information processing,” speed, and shortening the decision-making cycle to exponentially decrease “sensor-to-shooter” time is now a defining concept in the Pentagon’s multi-domain focus on future warfare. Information at the “speed of relevance” from space, surface, to air, to ground, to undersea… is the sought after goal.

Much is discussed in terms of the Pentagon’s overarching Joint All Domain Command and Control (JADC2) strategy, and we hear often about the Army’s breakthrough Project Convergence successfully connecting forward mini-drones with larger drones, helicopters, robots and armed combat vehicles to attack enemies in seconds.

By extension, the Air Force’s Advanced Battle Management System on-ramp experiments have generated massive steps forward. 


U.S. Air Force Airmen speak with reporters on the new innovative Advanced Battle Management System (ABMS) Onramp 2, Sept 2, 2020 at Joint Base Andrews, Maryland. The effect ABMS is attempting to achieve is Joint All-Domain Command and Control (JADC2). (U.S. Air Force photo by Senior Airman Daniel Hernandez)

What about the Navy? The maritime effort is called “Project Overmatch,” and while it may get less attention, efforts to better gather, organize, network and protect information across air, sea and undersea domains continue to generate unprecedented progress.

Project Overmatch

The thrust of the Navy’s Distributed Maritime Operations strategy rests upon the secure networking and processing of warfare information, as disaggregated nodes such as space-based sensors, air drones, submarines, surface ships and even fighter jets can be greatly dispersed across a vast combat envelope, yet still closely connected by long-range sensors and communications networks. 

This can both bring the maritime warfare impact of close coordination, yet within broader, more dispersed formation. This tactical approach is increasingly reflected in Navy and Marine Corps strategic thinking, which not only continues to massively emphasize unmanned systems but also elevates information processing and transmission across domains as a fundamental strategic warfare objective.

For example, the recently published Marine Corps Force Design 2030 lays out sweeping changes the Marine Corps needs to make to meet the principal challenges facing the institution to include new priorities such as information sharing, data processing and analysis and sheer targeting speed linking sensors to shooters.

“Future force development requires a wider range of force options and capabilities. The Marine Corps must be able to fight at sea, from the sea, and from the land to the sea; operate and persist within range of adversary long-range fires; maneuver across the seaward and landward portions of complex littorals; and sense, shoot, and sustain while combining the physical and information domains to achieve desired outcomes,” the Corps report says. 

AI-enabled networking, secure RF datalinks, longer-range sensors and weapons, high-speed computer processing and other innovations impacting the warfare decision cycle are naturally areas of great focus.

Expeditionary warfare, firepower, increasing long-range precision fires, dispersed unmanned systems, lighter, smaller amphibs and EW attack technology are all described by the Marine Corps paper; they do not seem at all surprising as key tenets or points of emphasis in the Corps’ strategy, and the text also introduces some uniquely modern variables and applications, which represent interesting steps forward and adaptations to a fast-evolving modern threat environment.

Force Design 2030 highlights the importance of expeditionary warfare in the Indo-Pacific and a need to adapt to and embrace new, evolving, high-tech “threat assumptions.” 

The planning guidance emphasizes “expeditionary long-range precision fires; medium- to long-range air defense systems; short-range (point defense) air defense systems; high-endurance, long-range unmanned systems with Intelligence, Surveillance, and Reconnaissance (ISR), Electronic Warfare (EW), and lethal strike capabilities.”

It is upon this foundation that the Navy is working with various industry partners to refine radar, EW, Synthetic Aperture Sonar, optical networking, RF datalinks and other communications technologies to further evolve multi-domain maritime networking as part of Project Overmatch. 

Northrop Grumman

Northrop Grumman, for instance, continues to work with the Navy on multi-domain mission systems, command and control and digital networking technologies to help the Navy and Marine Corps transition to a more dispersed, yet highly connected force ready for great power warfare on the open ocean.

“The Marine Corps has been a ‘second land army’ largely for the last 20-years or so, so we are now focused on supporting their move back toward their expeditionary, amphibious roots. It requires a different force structure, it requires different hardware and software and using existing systems in new ways,” Tom Wears, Director, Program Development, Maritime/Land Systems, Sensors Division, Northrop Grumman Mission Systems, told Warrior in an interview.

G/ATOR Radar

Northrop Grumman supports sensors, networking and command and control for the “Mission Systems” supporting anti-submarine, surface and countermine warfare modules for the Littoral Combat Ship and delivers the Marine Corps G/ATOR radar and upgraded EW systems, among other things. 

The AN/TPS-80 Ground/Air Task Oriented Radar (G/ATOR), is a Marine Corps system which Northrop continues to upgrade by migrating from analog to digital surveillance technology and expanding targeting range and aperture. Wears said Northrop Grumman was adjusting the legacy or basic G/ATOR radar by adding new sensing elements so it has a “denser pattern.” He also said Northrop Grumman was working on expanded capabilities for the G/ATOR system and performing multiple software upgrades to tie into an integrated fire control kill chain.


The Marine Corps’ premier air defense radar, the AN/TPS-80 Ground/Air Task Oriented Radar (G/ATOR)

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A major Northrop Grumman EW technology now in production called AN/SLQ-32(V)7, Surface Electronic Warfare Improvement Program (SEWIP) Block 3, an evolving maritime electronic warfare system intended to help defend against incoming anti-ship missiles, is capable of being networked.

SEWIP Block 3 is intended to simultaneously track, deceive, “jam” and derail multiple inbound weapons that may be using different frequencies. The emerging Block 3 variant advances the technical features for EW by adding an advanced offensive electronic attack capability and a future capability to integrate Electronic Warfare with Information Operations (IO), among other things.

SEWIP Block 3

Artist’s rendering of the SEWIP Block 3 System neutralizing a threat.

SEWIP B3 is an electronic attack weapon that is not limited to locating, jamming and disrupting inbound threats; it is also capable of conducting offensive operations against enemy radar systems and other electronic sources.

The system is currently designed for installation on Navy DDG-51 Class Destroyers and is on track to be operational in the next few years, Northrop developers explain. Navy officials tell Warrior that the service’s new Frigate is also being engineered for configuration with advanced EW systems.

“The SEWIP System is designed and constructed to defend against the anti-ship cruise missile threat,” Wears said. He also mentioned the significance of multi-function hardware such as Active Electronically Scanned Arrays (AESA) to break new ground with combat networking.

The SEWIP Block 3 EW system uses a collection of 16 Active Electronically Scanned Arrays, or AESAs, to emit groups of targeted “pencil” beams, as opposed to wide overlapping beams, Northrop developers say. This allows narrowly tailored and specifically focused “beams” able to “put energy only where it is needed,” as one Northrop Grumman engineer explained it.

All of this is, as a part of the strategy, is closely woven into a commensurate effort to synergize systems such as G/ATOR Radar, SEWIP, and Synthetic Aperture Sonar with “information Operations.” A future concept is to connect crucial intelligence gathering technology with EW attack and defense systems by synthesizing IO and EW.

SEWIP Block 3

The SEWIP Block 3 Engineering Development Model System in the Northrop Grumman High Bay Integration Lab in Baltimore, Md. (Photo: Northrop Grumman)


Part of this is accomplished through consistent continuous software upgrades and threat monitoring. It is upon this foundation that Northrop developers are expanding the EW technology by integrating it with Information Operations (IO). Part of this EW/IO integration is evolving through an initiative to connect advanced EW with communications; this not only helps identify approaching threats with better fidelity but also works to de-conflict the EW Spectrum, which might otherwise be overloaded by multiple systems on a single ship.

U.S. Navy-Marine Corps Networked "Whole"

These and other technologies support the Navy-Marine Corps strategy by virtue of strengthening and extending range, security and speed of information transfer in warfare. 

Maneuvering into attack position, it would seem clear, might be entirely different should targeting and surveillance specifics be arriving in seconds from various nodes across a “meshed” or interconnected data network. Faster, more precise firepower, enabled by sensor gathered, distilled and organized pools of otherwise disparate sources of incoming data, can mean finding, attacking and even destroying an enemy more quickly. 

These variables, therefore, when viewed as an integrated or networked “whole” can merge classic Corps’ warfare concepts such as maneuver warfare and the use of heavy, yet precise firepower, combined to introduce unprecedented combat dynamics.

Detecting and thwarting anti-ship missiles more quickly and at greater ranges, made possible in part by advanced networking and sensor systems such as SEWIP and G/ATOR is intended to successfully enable more dispersed, yet interconnected multi-domain maritime warfare. 

This brings the advantage of proximity while simultaneously allowing both greater stand-off range and a much wider operational combat area within which to maneuver and conduct operations.


As with the other services, the Navy’s Project Overmatch is geared toward joint, multi-domain warfare operations. This is why Northrop Grumman is looking at ways to further integrate its Navy-specific networking technologies with its Army, network enabled Integrated Air and Missile Defense Battle Command System (IBCS) command and control program. 

Employing common technical standards, a Modular Open Systems Approach (MOSA) design, and a dispersed base of ground platforms including Patriot Missiles and Sentinel Radars, IBCS seeks to find incoming threats and seamlessly integrate threat track data across a network of defensive combat “nodes” set up to speed up sensor awareness across the force and massively improve the sensor to shooter or interceptor fire control loop. In fact, IBCS has already operated with aerial platforms such as an F-35, so it would not be at all surprising to see ship-based AESA woven into some kind of joint IBCS-like system.

In fact, in July of this year, the U.S. Army successfully engaged a cruise missile target in a highly contested electronic attack environment during a developmental flight test using IBCS. 

The test at White Sands Missile Range in New Mexico demonstrated the integration of IBCS and G/ATOR, and incorporated first-time live testing and demonstration of a Joint Track Manager Capability (JTMC). 


The latest flight test integrated the widest variety of sensors to date on the IFCN for an IBCS test, including one Marine Corps G/ATOR, two Army Sentinel radars, one Army Patriot radar and two U.S. Air Force F-35 fighter aircraft

This provided a bridge between IBCS and the Navy’s Cooperative Engagement Capability (CEC), enabling the integration of G/ATOR track data on the IBCS Integrated Fire Control Network (IFCN) to enable a successful intercept of the cruise missile. The flight test also incorporated two F-35 combat aircraft integrated on the IFCN with on board sensors contributing to the IBCS developed joint composite track used to perform the engagement.

Certainly something along these lines would align with the overall vision of the Pentagon’s critical JADC2 effort. 

-- Kris Osborn is the Managing Editor of Warrior Maven and The Defense Editor of The National Interest --

Kris Osborn is the defense editor for the National Interest. Osborn previously served at the Pentagon as a Highly Qualified Expert with the Office of the Assistant Secretary of the Army—Acquisition, Logistics& Technology. Osborn has also worked as an anchor and on-air military specialist at national TV networks. He has appeared as a guest military expert on Fox News, MSNBC, The Military Channel, and The History Channel. He also has a Masters Degree in Comparative Literature from Columbia University.

Kris Osborn, Warrior Maven President

Kris Osborn, Warrior Maven President - Center for Military Modernization