The USS Gerald R. Ford-class aircraft carrier is a stunning new vessel that promises to change the face of modern naval power and engineering. 1,092 feet long and roughly 100,000 tons, the multi-billion dollar supercarrier is intended to succeed the older Enterprise and Nimitz-class ships as well as usher in an new era of maritime operational capacity. Due to a complete overhaul of how the ship will operate around propulsion, weapons, countermeasures and aviation functions, the Ford boasts a massive fleet size balanced with new tech innovation.

Six disruptive technologies are incorporated into the Ford class to enhance their operational capabilities, save money and optimize their performance. On board next-generation A1B nuclear reactors, electromagnetic aircraft launch systems, radar nets, and equipment that automates the traditional ship operations will not only make aircraft launches and recoveries more efficient, but will move weapons faster, enhance threat detection capabilities and reduce the overall life-cycle operating costs of the ships. This technology is essential to delivering a 21st-century carrier platform, capable of adapting to future warfighting requirements.

1. Next-Generation A1B Nuclear Propulsion Reactors

The gargantuan Gerald R. Ford-class supercarrier, though, is a massive leap in naval engineering, starting with its next-generation A1B nuclear propulsion engines. The long-serving A4W reactors on the old American aircraft carriers were reliable as an anvil, but optimized to work with the technological constraints of 1970s technology. The newer A1B design produces a lot more electricity from fewer components and requires less frequent replacements. This means new Ford-class ships will produce about 250 to 300 percent more electricity than older ships of the same size. This massive electrical budget can power everything from sensors, electromagnetic catapults, and the Ford-class’s new digital defenses with 50 years of ship life ahead, the design also has space for the next generation of defensive systems and power-heavy weapons.

Inside the Powerhouse:

• A1B reactors generate greater electrical capacity.
• Fewer components simplify onboard machinery.
• Reduced maintenance supports long-term operations.
• Advanced systems receive continuous electrical power.
• Future technologies gain additional power capacity.

The A1B nuclear propulsion system will generate not only enough energy to operate the carrier’s current systems but will also have extra electrical generating capacity, allowing the ship to support more advanced military technologies through its service life. Modern aircraft carriers require a steady flow of power to support their aircraft systems, sensors, and defensive network capabilities, and electrical generation is an integral component of combat readiness. By generating significantly more electricity than other nuclear propulsion configurations, the Ford class will be able to support these demanding demands and minimize scheduled maintenance. Less hardware and more electrical power generation will also allow the carrier to be more operationally efficient. Instead of undergoing major structural modernization whenever new energy-intensive systems become available, the carrier will have room to expand its power generation infrastructure.

2. Electromagnetic Aircraft Launch System (EMALS)

Electromagnetic Aircraft Launch System (EMALS) replaces steam catapults with software-controlled electromagnetic catapults. Past aircraft carriers were equipped with steam catapults that could propel aircraft along the deck. Steam arrangements imposed significant stresses on aircraft frames and could not be easily adjusted. EMALS uses electrical forces to smoothly accelerate aircraft during launch. Flexible, incremental launch energy means the ship can launch fully laden manned aircraft and lightweight unmanned vehicles. EMALS can recharge more rapidly than traditional steam catapults, enabling aircraft carrier flight schedules to be maintained. EMALS also removes large steam systems and generation equipment, reducing the carrier’s weight and water needs.

What Makes EMALS a Major Leap:

• Electromagnetic forces replace steam catapults.
• Software precisely controls aircraft acceleration.
• Adjustable power supports different aircraft.
• Faster recharging improves launch frequency.
• Reduced water consumption improves efficiency.

10 In addition to enabling more precise acceleration of each aircraft, EMALS offers a number of significant advantages. Lower impulsive loads on the aircraft airframes may also prolong the operational life of the embarked air wing. EMALS can launch a greater variety of aircraft and unmanned systems by enabling the carrier to launch conventional fighters as well as other varieties of aerial vehicles. Because it can be charged more quickly than a steam catapult, the system will be ready to launch another aircraft sooner. Its electromagnetic nature also facilitates removing large boilers, compressors, pressure vessels, piping, and piston systems used in traditional steam catapults. Reduced water use will help conserve fresh water for crew consumption, in turn reducing the amount of energy needed to desalinate this water. These and other system attributes should enhance sortie generation and sustainment of high-tempo flight operations.

3. Advanced Arresting Gear (AAG) Recovery System

The Advanced Arresting Gear (AAG) brings aircraft back to the flight deck on Ford-class carriers. In the past, fixed-energy hydraulic arresting gear equipped with mechanically adjustable resistance elements were used on previous carriers to control the deceleration of landing aircraft. AAG uses water turbines for energy absorption along with software defined resistance to provide a more flexible approach to aircraft recovery. The system will accommodate ships’ aircraft of various sizes and weights by calculating the drop profile of the target aircraft and automatically adjusting the arresting gear, thereby reducing stress on the aircraft’s landing gear and structure. The new system offers the ability to recover heavier aircraft, while being compatible with future unmanned aerial systems.

Smarter Landings Five Essential Benefits:

• Water turbines absorb landing energy.
• Software adjusts aircraft recovery resistance.
• Aircraft weight guides system adjustments.
• Reduced stress protects landing components.
• Broader compatibility improves recovery flexibility.

Recovery of aircraft is a crucial part of carrier aviation as each returning aircraft has to be brought to a controlled stop within the confines of the limited space available on the flight deck. The AAG can improve the process by changing the resistance characteristics of the system to match the particular characteristics of the return aircraft. Rather than using fixed mechanical resistances, the software-based resistance allows for a more accurate transfer of energy, helping to accommodate various aircraft weights and landing conditions, manned and unmanned strike fighters and remotely piloted platforms. The system eases stress on the landing gear and airframe components, supports aircraft longevity and contributes to mission success. Its proven adaptability also aligns with the Ford-class design concept to improve flight deck efficiency, reduce maintenance, and assure Aviation readiness.

4. Advanced Weapons Elevators (AWE)

Enhanced Munitions Handling (AWE) Ford class features Advanced Weapons Elevators (AWE) to facilitate the transfer of munitions from inboard weapons magazines to flight-deck staging areas. The Advanced Weapons Elevators system is the primary development area for the AWE capabilites it replaces traditional cable driven elevators, which were mechanically complex, relatively slow, and constrained by fixed, rack mounted vertical shafts with advanced electromagnetic elevators capable of moving larger loads of heavier munitions at faster speeds in a smaller volume, and by streamlining the weapon transfer process so that aircraft can be prepared more quickly for their next assignment. This technology, which encountered development setbacks during its initial deployment, is envisioned to provide increased munitions handling capability, reduced personnel requirements on the armaments deck, and enhanced combat efficiency and effectiveness.

Faster Weapons Handling:

• Electromagnetic elevators replace cable systems.
• Heavier ordnance moves at higher speeds.
• Compact designs conserve internal space.
• Fewer handling steps streamline weapons movement.
• Reduced staffing supports combat readiness.

Essentially, elevators determines how quickly an aircraft carrier can load an air wing for a sortie. The elevator carries weapons from the main storage magazines of the ship to the flight deck for loading onto aircraft, and traditional cable elevators were hampered by complexity and restrictions in design that could impair overall speed. The Ford-class electromagnetic elevators are built to address these problems by delivering larger payloads faster and taking up less room. The elevators’ capacity to cut down on the number of steps needed to move weapons helps accelerate the flow of equipment to preparatory areas and, in turn, can lessen the workload for sailors in the magazines and on the flight deck. Though the technology ran into some development issues when first introduced in the Ford class, the system’s intended benefits aren’t entirely about speed.

5. Integrated Dual Band Radar (DBR)

Integrated Dual Band Radar (DBR)Modernizes command, control and situational awareness The previous generations of carrier used a large number of separate radar and combat systems, each with its own operators and means of maintaining. Instead of multiple radar sets with different frequencies, the integrated design combines the air and surface search functions and employs a single radar architecture with different radar frequency sources. This enables carriers to detect and track threats more quickly, more accurately and in greater numbers over all domains, helping the operator respond more rapidly to new threats as they develop. The integrated radar also improves the use of defensive equipment, including Sea Sparrow and Phalanx CIWS guns, for the ship’s defense and lessens the work load for operators.

A Sharper View of the Battlefield:

• Integrated radar combines search functions.
• Multiple frequencies support threat detection.
• Continuous tracking improves target awareness.
• Faster responses strengthen defensive coordination.
• Connected systems streamline combat information.

Incorporating air and surface search sensors, the Dual Band Radar system will contribute to a more coordinated process of identifying and defeating potential threats. The integrated architecture reduces the separation between the ship’s various sensing and combat systems. The utilization of radar at specific frequencies will enhance the detection, tracking and targeting performance needed to address a wide spectrum of conditions and scenarios. As the flow of information improves, so will the carrier’s ability to keep track of all environments, while at the same time providing the defensive systems with increased ability to address incoming threats. Integration will also reduce the burden of managing a number of stand-alone systems with different personnel and maintenance requirements. Radar information distributed to command spaces, defensive systems and the embarked air wing will give the carrier means for much more coordinated operations.

6. Comprehensive Crew Automation and Reduced Manpower

Automation drives the design of the Gerald R. Ford-class to simplify routine shipboard tasks and to cut operational costs over the ships’ long life. Nimitz-class supercarriers, with air wings embarked, typically operate with 5,000 or more ship’s company personnel, driving heavy demands on the Navy’s manpower resources. The new Ford class features advanced machinery, sensors and integrated monitoring systems that allow the ship to operate with several hundred fewer sailors, by monitoring machinery condition 24 hours a day and helping maintenance personnel anticipate problems before they arise. Shipbuilders forecast the operational efficiencies and workforce reductions will save about $4 billion in total ownership costs per ship during their 50-year service lives.

Automation That Changes Carrier Operations:

• Automated machinery reduces manual workloads.
• Sensors continuously monitor equipment conditions.
• Predictive maintenance improves operational efficiency.
• Smaller crews reduce long-term costs.
• Staffing savings support fleet readiness.

Lowers the number of sailors needed to operate the aircraft carrier. The features of the Ford class, which include automation, new sensors and monitoring tools, are designed to streamline and lessen routine duties and minimize long hours of manual checks. The ships’ ability to keep track of equipment in real-time will enable the Navy to trend and predict maintenance requirements and diagnose problems early on, allowing the crew to plan and carry out preventative work. Overall, these enhanced features should help lessen the day-to-day toil and contribute to maintaining mission-ready aircraft carriers. Significantly reducing the ship’s crew requirements will also help the Navy better allocate its manpower resources. Shipbuilders estimate the savings from the higher efficiency of the ship could be $4 billion in the lifetime ownership costs of each carrier, which is 50 years. This means that with fewer sailors necessary for daily tasks, more sailors could focus on higher priority missions.