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| AN/ASQ-28 LANTIRN | |
|---|---|
| Name | AN/ASQ-28 LANTIRN |
| Origin | United States |
| Type | Targeting pod / navigation pod |
| Manufacturer | Martin Marietta / Lockheed Martin |
| Introduced | 1980s |
AN/ASQ-28 LANTIRN is an airborne targeting and navigation pod system developed for tactical strike aircraft, introduced in the 1980s to improve low-altitude, night and adverse-weather operations. The system combined infrared sensor, laser designator, terrain-following radar and inertial navigation elements to enable precision strike and improved situational awareness for crews flying in United States Air Force, United States Navy and allied air arms. Designed by contractors later consolidated into Lockheed Martin, the pod influenced subsequent targeting systems used on platforms like the McDonnell Douglas F-15E Strike Eagle, General Dynamics F-16 Fighting Falcon, and Grumman F-14 Tomcat.
LANTIRN stood for Low Altitude Navigation and Targeting Infrared for Night and provided two primary functions via coordinated pods: precision targeting and terrain-followed navigation. It was fielded as part of modernization efforts contemporaneous with programs such as F-14 Tomcat modernization, F-15 avionics upgrades, and the broader tactical modernization initiatives of the Reagan administration and Department of Defense. The capability set addressed operational requirements highlighted during conflicts like the Vietnam War lessons and later validated in the Gulf War (1990–1991), enabling improved employment of munitions including laser-guided bombs and precision-guided munitions used by NATO partners.
The LANTIRN suite comprised two complementary pods: a navigation pod and a targeting pod. The navigation pod integrated terrain-following radar and forward-looking infrared sensors coupled to an inertial navigation system, drawing on technologies from contractors linked to Martin Marietta, Westinghouse, and later Lockheed Martin Missiles and Fire Control. The targeting pod incorporated a high-resolution infrared search and track (IRST) sensor and a laser designator/laser spot tracker allowing designation of targets for weapons like the GBU-12 Paveway II and coordination with platforms using JDAM guidance. Avionics interfaces conformed to standards used in aircraft upgrades by manufacturers including Boeing, Northrop Grumman, and Pratt & Whitney engine programs.
The system enabled low-altitude, nap-of-the-earth flight using terrain-following guidance, allowing crews to navigate under adverse weather and at night with reduced threat exposure from systems such as the SA-2 Guideline and other integrated air defenses encountered in conflicts like the Yom Kippur War studies. Targeting capabilities supported laser designation, infrared targeting, and long-range target acquisition, contributing to strike accuracy against hardened point targets, moving vehicles, and fixed infrastructure. LANTIRN’s sensors interoperated with cockpit displays and weapons management systems common to upgrades undertaken by McDonnell Douglas and General Dynamics, providing pilots and weapon systems officers with stabilized imagery and target cues.
Designed for integration on multiple fighter and strike aircraft, LANTIRN was certified for use on airframes including the McDonnell Douglas F-15E Strike Eagle, General Dynamics F-16 Fighting Falcon, Grumman F-14 Tomcat, and variants of the F/A-18 Hornet family in some export contexts. Platform integration involved avionics modification programs overseen by prime contractors such as Lockheed Martin, Boeing Military Aircraft, and subcontractors in the supply chain like Raytheon Technologies and Honeywell International. Integration also required coordination with weapon suites fielded by allies such as the Royal Air Force, Royal Australian Air Force, and several NATO air forces that procured compatible munitions and targeting doctrines.
LANTIRN was operationally employed during major campaigns in the late 20th and early 21st centuries, notably contributing to the coalition air campaign in the Gulf War (1990–1991), where night-strike capability was a force multiplier. Subsequent operations during the Kosovo War, Iraq War, and War in Afghanistan (2001–2021) saw continued use, alongside evolving systems such as the Sniper XR targeting pod and the AN/AAQ-33 Sniper family that built on lessons from LANTIRN deployments. Its role in enabling precision strikes informed doctrine and procurement decisions across NATO and partner air forces.
Over its service life, the LANTIRN system received incremental upgrades in sensor resolution, laser range and reliability, and avionics interfaces, driven by engineering efforts from Lockheed Martin Missiles and Fire Control and subcontractors including Sperry Corporation and UTC Aerospace Systems. Variants targeted specific platform requirements and export customer needs, aligning with certification processes overseen by organizations such as the Defense Acquisition University and export control frameworks like regulations administered by the Department of State. Later targeting pods such as the LITENING targeting pod and Sniper incorporated advances originally matured in LANTIRN programs.
Primary operators included the United States Air Force and allied users among NATO members and partners, with deployment aboard strike squadrons and expeditionary units. Export and foreign military sales processes involved countries such as United Kingdom, Australia, Israel, and others that modernized strike capabilities through bilateral agreements and foreign military sales managed by the Defense Security Cooperation Agency. Deployment doctrines were adapted within air forces including the Royal Air Force, Royal Australian Air Force, Israeli Air Force, and various European Union member states operating compatible fighter fleets.
Operational evaluations by entities such as the U.S. General Accounting Office and flight test programs at bases like Edwards Air Force Base assessed reliability, maintainability, and mission effectiveness. Incidents involving pod damage or sensor degradation occurred in expeditionary operations and training accidents logged in reports by Air Combat Command and were analyzed to inform upgrades and maintenance procedures. Comparative assessments versus competing systems influenced procurement choices by organizations including Air Force Materiel Command and defense industry decision-making.
Category:Targeting pods