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AN/TPS‑59 radar

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AN/TPS‑59 radar
NameAN/TPS‑59 radar
CountryUnited States
TypePermanent/transportable 3D surveillance radar
Introduced1983
ManufacturerLockheed Martin, formerly General Electric and Westinghouse Electric Corporation

AN/TPS‑59 radar The AN/TPS‑59 radar is a long-range, mobile, three-dimensional (3D) air search radar developed for high-altitude and ballistic missile detection and surveillance. Designed during the late Cold War, it entered service in the early 1980s to provide United States Marine Corps and allied forces with strategic early warning against aircraft and tactical ballistic missile threats. The system integrates technologies and doctrines influenced by programs and events such as the Strategic Defense Initiative, the Yom Kippur War, and lessons from the Vietnam War air campaigns.

Development and Design

Development of the AN/TPS‑59 radar involved contractors with histories in radar research including Westinghouse Electric Corporation, General Electric, and later Lockheed Martin. Its conceptual lineage traces to experimental arrays tested at facilities like White Sands Missile Range and programs influenced by requirements from Marine Corps Combat Development Command and operational feedback from units deployed in theaters such as Lebanon (1982–1984) and the Falklands War. Design priorities included passive electronically scanned array features, transportability compatible with platforms similar to those used by M109 Paladin logistics, and interoperability with command systems like Tactical Air Control Party networks and the Joint Surveillance Target Attack Radar System concept. Engineering teams incorporated lessons from radar developments at institutions such as MIT Lincoln Laboratory, Rome Laboratory, and industrial partners linked to the Defense Advanced Research Projects Agency.

Technical Specifications

The AN/TPS‑59 is a rotating, long-range 3D radar employing a phased-array antenna to measure range, azimuth, and elevation. Primary components derive from technologies used in projects at Harris Corporation, Raytheon Technologies, and research by Sandia National Laboratories. Typical specifications include multiple frequency band operation with long-wave capabilities for over-the-horizon resilience, pulse-Doppler processing, and coherent signal processing drawn from advances at Bell Labs and Nama Systems research. The system architecture supports modes for search, track, and ballistic missile detection, leveraging data links compatible with command nodes like Marine Air Command and Control System and standards emanating from North Atlantic Treaty Organization interoperability initiatives. Power and cooling subsystems reflect field-hardened designs used in equipment deployed to environments such as Camp Lejeune and Iwakuni.

Operational History

The AN/TPS‑59 first deployed with United States Marine Corps aviation units and saw operational use in theaters including Operation Desert Shield, Operation Desert Storm, and expeditionary deployments in the Mediterranean supporting contingencies near the Balkans and in support of Operation Iraqi Freedom. It provided early warning for air operations coordinated with assets like the F/A-18 Hornet, F-14 Tomcat, and allied fighters from Royal Air Force and Royal Australian Air Force squadrons. The radar contributed to regional air defense architectures alongside systems such as the AN/TPQ‑36 Firefinder and integrated with command elements from United States European Command and United States Central Command. Deployments also informed upgrades following engagements in environments characterized by the anti-access strategies seen in incidents like the Gulf War.

Variants and Upgrades

Several blocks and upgrade packages enhanced AN/TPS‑59 performance, incorporating technologies developed by Lockheed Martin, Northrop Grumman, and subcontractors including BAE Systems and Thales Group collaborators. Upgrades emphasized improved signal processing, replacement of legacy electronics with solid-state components, and enhanced ballistic missile warning capabilities reflecting research from MIT Lincoln Laboratory and Johns Hopkins University Applied Physics Laboratory. Some configurations optimized for expeditionary units paralleled modular initiatives similar to those used in Stryker support systems and were field-tested in exercises with partner militaries such as Japan Self-Defense Forces and Royal Netherlands Air Force.

Deployment and Users

Primary operator states include the United States Marine Corps, with export or cooperative deployments to allied forces participating in joint operations alongside NATO members such as United Kingdom, Italy, and Netherlands. The system has been emplaced at bases and expeditionary sites including Camp Lejeune, Marine Corps Base Quantico, and forward operating locations supporting coalitions in Persian Gulf operations. Interoperability exercises paired the AN/TPS‑59 with platforms and commands like AWACS, Aegis Combat System, and battlefield networks used by United States Special Operations Command and coalition tactical command elements.

Performance and Capabilities

The AN/TPS‑59 provides long-range air surveillance with 3D tracking and limited ballistic missile detection, enabling early warning for high-altitude threats similar to those monitored by strategic radars at installations such as RAF Fylingdales and Thule Air Base. Its phased-array antenna supports rapid revisit rates and robust clutter rejection techniques developed in research programs at Lincoln Laboratory and industry partners like Harris Corporation. Data produced by the radar feed into air battle management systems coordinating fighters including F-15 Eagle and support platforms such as E-2 Hawkeye, improving situational awareness for commanders in theaters influenced by doctrines from Joint Chiefs of Staff guidance and coalition operational planning frameworks.

Category:Military radars of the United States