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| Internet of Battlefield Things | |
|---|---|
| Name | Internet of Battlefield Things |
| Type | Military information network |
| Introduced | 21st century |
| Used by | United States Department of Defense, People's Liberation Army, Armed Forces of the Russian Federation, Israel Defense Forces, British Army |
| Manufacturer | DARPA, Defense Advanced Research Projects Agency, General Dynamics, Lockheed Martin, Northrop Grumman |
Internet of Battlefield Things
The Internet of Battlefield Things concept denotes networked, sensing, and autonomous systems deployed in contested environments to support United States Department of Defense operations alongside allied forces such as NATO partners and regional actors like the Japan Self-Defense Forces or Australian Defence Force. It integrates platforms developed by organizations including DARPA, Defense Advanced Research Projects Agency, Lockheed Martin, Northrop Grumman and startups working with institutions like Massachusetts Institute of Technology, Stanford University, Carnegie Mellon University, and national laboratories such as Los Alamos National Laboratory. Initiatives intersect with programs and doctrines from entities such as Joint Chiefs of Staff (United States), U.S. Army Futures Command, People's Liberation Army modernization, and procurement bodies like UK Ministry of Defence and French Armed Forces.
The paradigm emerged from advances in networking exemplified by projects at Defense Advanced Research Projects Agency and research collaborations at MIT Lincoln Laboratory, influenced by operations in theaters like Operation Enduring Freedom, Iraq War, and doctrinal studies from RAND Corporation and International Institute for Strategic Studies. Concepts draw on technologies previously fielded by contractors such as BAE Systems and Raytheon Technologies and are motivated by geopolitical competition involving states like the People's Republic of China and Russian Federation. Early demonstrations involved exercises by U.S. Army Training and Doctrine Command and experimentation centers including Army Futures Command and U.S. Naval Research Laboratory.
Hardware and software stacks combine sensors, actuators, and communication nodes from vendors such as General Dynamics and Thales Group, integrating chips produced by firms like Intel Corporation and NVIDIA Corporation and radios from Harris Corporation. Edge computing elements leverage architectures developed in collaboration with IBM, Microsoft Corporation, and research groups at University of California, Berkeley and Georgia Institute of Technology. Satellite links involve constellations operated by companies and agencies including SpaceX, European Space Agency, and National Reconnaissance Office. Interoperability frameworks reference standards promulgated by organizations like NATO Standardization Office and research from Institute of Electrical and Electronics Engineers working groups, while systems engineering practices come from institutions such as Royal United Services Institute and Center for Strategic and International Studies.
Deployments aim to provide persistent situational awareness using unmanned platforms made by firms such as General Atomics and DJI, autonomous ground vehicles from laboratories like Oak Ridge National Laboratory, and distributed sensors inspired by academic projects at California Institute of Technology and Cornell University. Applications include target acquisition in scenarios similar to Battle of Mosul (2016–17), logistics optimization akin to efforts by U.S. Transportation Command, and electronic warfare tied to doctrines from Air Force Research Laboratory and NATO Allied Command Transformation. Integration with reconnaissance assets draws on lessons from programs like Distributed Common Ground System and collaborations with intelligence agencies such as the Central Intelligence Agency and National Security Agency.
Security concerns involve adversarial interference exemplified by incidents attributed to actors such as the Russian Federation in exercises analyzing supply-chain compromise, and capabilities to counter jamming studied by research centers including Sandia National Laboratories. Cryptographic approaches build on standards developed by National Institute of Standards and Technology and coordination with agencies like U.S. Cyber Command. Resilience strategies reference redundancy models used by Federal Aviation Administration and contingency frameworks from Department of Homeland Security. Insider threat and data governance debates engage legal bodies including U.S. Congress and oversight from organizations like European Commission.
Ethical debates involve scholarship from institutions such as Harvard University, University of Oxford, Georgetown University, and think tanks including Brookings Institution and Chatham House. Legal frameworks must reconcile rules of engagement influenced by precedents like the Geneva Conventions and deliberations at forums such as United Nations General Assembly and International Court of Justice. Policy responses have been shaped by defense white papers issued by Ministry of Defence (United Kingdom), Department of Defense (United States), and strategic reviews from NATO and regional bodies including the Association of Southeast Asian Nations.
Operational limitations arise from contested electromagnetic environments studied by Naval Postgraduate School and logistical constraints observed during operations like Operation Inherent Resolve. Scalability and maintenance burdens echo procurement challenges seen in programs run by Defense Logistics Agency and acquisition patterns criticized by committees of United States Senate. Human-machine teaming complexities are analyzed in projects at DARPA and user studies at United States Military Academy (West Point) and Royal Military Academy Sandhurst.
Research priorities include AI-enabled autonomy from laboratories such as Allen Institute for AI and multi-domain integration promoted by U.S. Indo-Pacific Command and European Defence Agency. Emerging work ties quantum sensing research at National Institute of Standards and Technology to positioning resilience, while spectrum management innovations involve regulators like Federal Communications Commission and international coordination via International Telecommunication Union. Experimental ecosystems continue in exercises run by Joint Readiness Training Center and multinational drills like Exercise Trident Juncture to evaluate doctrine, procurement, and technological maturation.
Category:Military technology