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Javelin anti-tank missile

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Javelin anti-tank missile
NameJavelin anti-tank missile
OriginUnited States
TypeMan-portable fire-and-forget anti-tank missile
Used bySee section
ManufacturerRaytheon, Lockheed Martin
Production date1989–present
SpecificationsSee text

Javelin anti-tank missile The Javelin anti-tank missile is an American-made, shoulder-fired, man-portable anti-armor guided weapon developed in the late Cold War era and fielded from the 1990s onward. It was created through a multinational procurement and industry collaboration and has been employed in multiple conflicts, procurement programs, and modernization efforts by NATO and allied states.

Development and history

Development began as a response to requirements set by United States Army and overseen by the Defense Advanced Research Projects Agency and the U.S. Army Aviation and Missile Command, following Cold War lessons from the Soviet Union and experiences in European defense planning. The program involved competitions among defense contractors including Ford Aerospace, Hughes Aircraft Company, Martin Marietta, and later prime contractors Raytheon Technologies and Lockheed Martin after corporate mergers and reorganizations. Testing and evaluation cycles engaged test ranges at White Sands Missile Range and Yuma Proving Ground and incorporated lessons from the Gulf War and post-Cold War force restructuring under the Goldwater-Nichols Act. International interest and procurement negotiations included governments such as United Kingdom, Australia, France, Germany, Canada, and Norway, shaping production and export controls coordinated through United States Department of State and allied procurement frameworks like NATO acquisition cooperation.

Design and technical characteristics

The weapon employs a soft-launch booster and a tandem-charge high-explosive anti-tank (HEAT) warhead designed to defeat reactive and composite armor, reflecting lessons from engagements with T-72 and T-80 main battle tanks. Guidance is provided by an imaging infrared seeker with automatic target tracker enabling a "fire-and-forget" engagement mode analogous to technologies used in the FIM-92 Stinger program and influenced by seeker developments from aerospace projects tied to Honeywell and Northrop Grumman. The system allows both top-attack and direct-attack flight profiles, leveraging trajectory control algorithms and inertial measurement units similar to systems in Patriot missile and cruise missile avionics. The launcher assembly includes an optical sighting unit with battery packs and thermal imaging sensors derived from research at institutions such as MIT Lincoln Laboratory and industrial partners in Arizona and California. Mobility and logistics reflect compatibility with infantry units from doctrines used by formations like the 101st Airborne Division and the British Army's mechanized brigades.

Variants and upgrades

Several variants and upgrades have been fielded, including baseline production models, the improved seeker and warhead of follow-on production blocks, and upgraded electronics suites integrating digital processors from suppliers such as Texas Instruments and Intel. International variants tailored for particular operators incorporated custom software and training packages negotiated with ministries such as the Ministry of Defence (United Kingdom) and the Australian Department of Defence. Planned and realized upgrades have addressed seeker sensitivity, counter-countermeasure algorithms, and reduced weight through materials research involving contractors like Carnegie Mellon University spin-offs and composite firms in Pennsylvania.

Operational use and combat history

Javelin systems have been employed in several conflicts, with documented use by coalition forces during the War in Afghanistan (2001–2021), the Iraq War, and by international forces and proxies in later regional conflicts following Arab Spring dynamics. Notable engagements included anti-armor encounters against vehicles derived from Soviet designs such as BMP-2 and captured T-55 variants. Use by partner nations in NATO exercises such as Exercise Saber Strike and multinational operations coordinated through Combined Joint Task Force frameworks provided operational feedback leading to tactical doctrine updates within corps-level units like V Corps and national brigades.

Deployment and training

Deployment practices integrate Javelin teams into infantry and reconnaissance units modeled on force structures used by U.S. Army Ranger Regiment and the Royal Marines, with training conducted at centers including Fort Benning, Fort Bliss, DSEI events, and national firing ranges. Training syllabus covers target identification, engagement protocols, and logistics coordination reflecting procedures promulgated by the Department of Defense and partner ministries such as the Norwegian Defence Logistics Organization. Contractor-provided training and live-fire exercises are supplemented by simulation systems developed in collaboration with academic partners like Virginia Tech and industry contractors hosting events at NATO standard ranges.

Countermeasures and survivability

Countermeasure analysis reflects developments in active protection systems such as those fielded on platforms like the Merkava and concepts pursued by Rheinmetall and Elbit Systems, leading to research into tandem warhead designs and seeker discrimination capabilities to defeat explosive reactive armor (ERA) and hard-kill interceptors. Survivability for dismounted teams emphasizes shoot-and-scoot tactics shared with doctrines from U.S. Marine Corps and British mechanized infantry, electronic protection measures aligned with export control regimes administered by the Bureau of Industry and Security, and tactics to mitigate detection from battlefield sensors like those developed at Sandia National Laboratories.

Export, operators, and procurement

Operators include a range of NATO and allied states such as United States, United Kingdom, Australia, Poland, Ukraine, Estonia, Lithuania, and Romania, with procurement negotiated through foreign military sales managed by the Defense Security Cooperation Agency and bilateral agreements involving ministries like the Ministry of Defence (Australia). Export controls, offset agreements, and industrial participation have involved defense industries in Canada, Sweden, Italy, and Spain, while wartime aid packages and security assistance mechanisms have supplied systems in response to crises like the Russo-Ukrainian War and coalition operations under Operation Inherent Resolve.

Category:Anti-tank guided missiles