Advanced Battle Management System
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| Advanced Battle Management System | |
|---|---|
| Name | Advanced Battle Management System |
| Developer | United States Air Force |
| Manufacturer | Leidos; Northrop Grumman; Lockheed Martin; Raytheon Technologies; Perspecta |
| Introduced | 2019 |
| Type | Command, control, communications, computers, intelligence, surveillance and reconnaissance |
Advanced Battle Management System is a United States Department of Defense initiative led by the United States Air Force to replace legacy Joint Surveillance Target Attack Radar System era C4ISR architectures with a data-driven, networked Air Force Materiel Command-sponsored battle management capability. It seeks to integrate sensors, shooters, and decision-makers across the United States Department of Defense, allied forces such as North Atlantic Treaty Organization, and partner platforms including assets from the United States Navy, United States Army, United States Space Force, and industry contractors.
History and development
The program emerged after lessons from the Operation Desert Storm deconfliction and the Operation Iraqi Freedom command challenges, informed by analyses from Defense Advanced Research Projects Agency programs such as Integrated Battle Command System and by reports from the Congressional Research Service and Office of the Secretary of Defense. Initial contracts were awarded in the late 2010s during the tenure of Secretaries like Mark Esper and Chief leaders such as General David L. Goldfein; milestones included capability demonstrations during the Red Flag exercises and collaboration events with allies including United Kingdom, Australia, and Japan. The program evolved through successive prototyping efforts and acquisition reforms influenced by the Third Offset Strategy and the doctrine debates surrounding AirSea Battle and Multi-Domain Operations.
Architecture and components
ABMS is architected as a federated mesh of sensors and effectors built on standards-driven middleware, leveraging companies such as Leidos, Northrop Grumman, Lockheed Martin, and Raytheon Technologies. Core elements include distributed sensor fabrics from platforms like the E-3 Sentry, KC-46 Pegasus, MQ-9 Reaper, and space-based systems from Space Development Agency constellations; edge compute nodes inspired by Project Maven and cloud services modeled on Joint Enterprise Defense Infrastructure. Middleware and message brokering incorporate approaches similar to Universal Command and Control Interface and data frameworks advocated by Defense Innovation Unit initiatives and the Chief Information Officer of the Air Force.
Capabilities and functions
Designed functions encompass sensor-to-shooter linking, dynamic tasking, and real-time priority management across contested environments informed by lessons from Tactical Air Control Party operations and Joint Fires coordination. Capabilities include surface-to-air cueing akin to integrations between AN/TPS-80 G/ATOR sensors and air defenses, cross-domain attribution comparable to National Reconnaissance Office-supported intelligence, and rapid decision support influenced by algorithms from DARPA research. ABMS prototypes demonstrated multi-domain data fusion, automated targeting chains, and latency reduction strategies drawn from Mobile User Objective System and Wideband Global SATCOM lessons.
Operational concepts and doctrines
Operational concepts emphasize distributed command and control under doctrines such as Multi-Domain Operations championed by United States Army Training and Doctrine Command and the Air Force Doctrine Publication series. ABMS supports kill-web theories that contrast with linear OODA loop models discussed in writings by Colonel John R. Boyd and informs coalition interoperability scenarios from exercises like RIMPAC and Vigilant Shield. Doctrine integration spans joint publications crafted by Joint Chiefs of Staff and strategic guidance from leaders including General Charles Q. Brown Jr..
Implementation and platforms
Fielded prototypes have been integrated on platforms including the F-35 Lightning II, F-22 Raptor, F-15EX, and airborne command assets like the E-8 Joint STARS and E-3 Sentry. Naval testing involved links to vessels in the United States Fleet Forces Command and embarked systems aboard Arleigh Burke-class destroyer platforms; international demonstrations included engagements with Royal Australian Air Force platforms and Japan Air Self-Defense Force assets. Industry partners delivered mission systems into Nellis Air Force Base and Tyndall Air Force Base testbeds while program offices coordinated logistics through Air Force Life Cycle Management Center.
Interoperability and standards
Interoperability relies on established and emerging standards from organizations such as the NATO Standardization Office, data models promoted by the Defense Information Systems Agency, and message protocols reflecting lessons from Link 16 and Cooperative Engagement Capability. The program aligns with spectrum management rules from the Federal Communications Commission and integrates identity and access concepts from National Institute of Standards and Technology. Coalition interoperability has been tested under frameworks used by Allied Command Transformation and multilateral exercises including BALTOPS.
Security, resiliency, and ethics
Security and resiliency concerns draw on cyber frameworks from the Cybersecurity and Infrastructure Security Agency and acquisition directives issued by the Office of the Under Secretary of Defense for Acquisition and Sustainment. Measures include zero-trust architectures influenced by National Security Agency guidance, supply-chain scrutiny modeled after Defense Counterintelligence and Security Agency protocols, and resilience strategies reflecting Homeland Security-adjacent continuity planning. Ethical considerations reference analytic oversight debates raised by Project Maven controversies and policy reviews by bodies such as Congress and the Armed Services Committees regarding autonomy, rules of engagement, and escalation risks in networked lethality.