This article was accepted into the corpus but its outbound wikilinks were never NER-processed — typical at the deepest BFS hop or when the run's entity cap was reached. No expansion funnel to show.
| M58 MICLIC | |
|---|---|
| Name | M58 MICLIC |
| Origin | United States |
| Type | Mine-clearing line charge |
| Service | 1980s–present |
| Used by | Multiple NATO and allied forces |
| Designer | Picatinny Arsenal |
| Manufacturer | Dynasafe/ROF/General Dynamics |
| Weight | ~330 kg (launcher) |
| Length | launcher 4.4 m |
| Cartridge | Linear charge 9 m explosive line |
| Max range | 100 m (blast line) |
M58 MICLIC The M58 Mine-Clearing Line Charge is a vehicle-launched mine clearance system developed in the United States to defeat anti-personnel and anti-vehicle minefields. It combines a rocket-delivered linear explosive charge with standoff safety features to create cleared lanes through buried and surface-laid mines, used by NATO and allied engineering units in combined-arms operations. The system has been integrated on armored platforms and employed in expeditionary, peacekeeping, and high-intensity conflict environments.
The M58 MICLIC was developed at Picatinny Arsenal and fielded by the United States Army with manufacturing by contractors such as General Dynamics, Dynamit Nobel (DNG), and later vendors specializing in ordnance. The MICLIC consists of a high-strength launch tube mounted on combat engineering vehicles like the M1 Abrams, M113 APC, and M60 AVLB, a rocket motor derived from tactical rocket technology, and a linear charge constructed with RDX-based explosive filler and fragmentation-resistant sheathing similar to charges developed for Project SALMON and linear charges used in explosive ordnance disposal research. The standard warhead length produces a 3.7-meter-wide by 100-meter-long cleared lane; specifications cite an effective standoff to neutralize pressure, tilt-rod, and command-detonated devices modeled after PMN mine and TM-62 series performance. The launcher assembly includes stabilization and aiming sights adapted from systems like the M93 Fox and incorporates ordnance handling features compliant with NATO Standardization Agreement protocols. Weight, dimensions, and firing sequence are recorded in Army Technical Manuals and were influenced by blast-fragmentation data from tests at Yuma Proving Ground and Aberdeen Proving Ground.
The MICLIC entered service in the 1980s and was used by U.S. and allied engineer units in conflicts including Operation Desert Storm, Operation Iraqi Freedom, and Operation Enduring Freedom. Units from the 1st Cavalry Division, 2nd Infantry Division, and corps-level engineer brigades employed MICLICs to breach defensive belts and secure mobility corridors during offensive operations in desert and urbanized terrain. The system saw doctrinal use during Cold War planning for Warsaw Pact scenarios and was incorporated into NATO counter-mobility and breaching exercises such as Exercise REFORGER and multinational training at Grafenwoehr Training Area. After-action reports from Operation Iraqi Freedom documented MICLIC employment against emplaced mines and improvised explosive devices emplaced along Route Irish and near Fallujah, influencing subsequent procurement and survivability upgrades. Humanitarian demining organizations and coalition engineering units adapted doctrine from historical breaching operations like Operation Overlord and Korean War mine-clearing lessons when employing MICLIC in combined-arms contexts.
Several platform and charge variants emerged: launcher mounts were adapted for the M1 Abrams, M60 series, and lighter vehicles like the M113 APC and armored engineering vehicles from Alvis and Bae Systems. Explosive formulations evolved, incorporating insensitive munitions standards from Department of Defense policy and testing protocols used at Lawrence Livermore National Laboratory. Commercial and export variants were offered with alternative firing circuits and standoff lengths to comply with export regulations administered by the U.S. State Department and guided by Arms Export Control Act considerations. Upgrades included remote firing packages interoperable with battlefield management systems such as Blue Force Tracker-linked command nets and interfaces compatible with engineer counter-mobility suites fielded by United Kingdom and French Army engineers. Modernization efforts paralleled work on systems like the Rhino mine-clearing system and influenced development of next-generation line charges within NATO research programs.
Tactical doctrine uses MICLIC in deliberate breaching, hasty lane creation, and combined-arms assaults coordinated with armored, aviation, and combat engineer elements including units from U.S. Army Combat Engineer Battalion and multinational engineer companies. Breach planning references FM 3-90 and allied engineering manuals to sequence suppression, obscuration, and breach functions; MICLIC employment is synchronized with artillery units such as those from Field Artillery brigades and close air support assets from units like 1st Aviation Brigade to protect engineers during lane creation. Typical employment calls for reconnaissance by engineer reconnaissance teams from Sapper units, marking by combat engineers, and follow-on lane upgrade using mine rollers like those mounted on M1 Abrams tanks and systems such as the TROJAN vehicle from Marconi-era development. Training and certification occur at facilities like Fort Leonard Wood and multinational centers including NATO Allied Rapid Reaction Corps exercises.
Countermeasures to MICLIC use measures taken by adversaries include deep burial of mines, use of non-metallic casings such as in SATCOM-era improvised devices, and employment of anti-handling features modeled on Soviet and Russian mine designs. Safety doctrine enforces standoff distances, blast-shock mitigation, and medical evacuation protocols coordinated with Combat Lifesaver and Role 2 medical units. EOD teams from organizations such as U.S. Army EOD and multinational Explosive Ordnance Disposal units implement post-blast verification, using detection tools developed at Sandia National Laboratories and clearance equipment fielded by agencies like United Nations Mine Action Service. International safety standards and accident investigations reference procedures from NATO Standardization Agency and mandate personal protective equipment comparable to that used by Royal Engineers and Canadian Army engineers.
The M58 MICLIC has been procured by NATO members and partners including the United States, United Kingdom, Germany, France, Italy, Canada, Poland, Turkey, Australia, and other allied nations through Foreign Military Sales and direct commercial sales overseen by the U.S. Department of Defense and Defense Security Cooperation Agency. Recipients integrated MICLIC into armored engineer fleets alongside vehicles from manufacturers such as General Dynamics Land Systems and BAE Systems Land & Armaments. Procurement decisions were influenced by operational lessons from coalitions in Iraq and Afghanistan, interoperability requirements set by NATO exercises, and national force modernization plans managed by ministries like Ministry of Defence (United Kingdom) and counterparts in Germany and Canada.
Category:Explosive ordnance