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Simulation-based analysis of operational effectiveness using army weapon effectiveness analysis model of attack helicopter through manned–unmanned teaming (MUM-T) in plain, urban, and mountainous terrains environments

  • Journal of Advances in Military Studies
  • Abbr : AdvMil
  • 2025, 8(2), pp.43~66
  • DOI : 10.37944/jams.v8i2.284
  • Publisher : Institute of Defense Acquisition Program
  • Research Area : Social Science > Military Science > Other Military Science
  • Received : September 18, 2025
  • Accepted : November 3, 2025
  • Published : October 31, 2025

Lee, Bohyung 1 Jeong, Seokjae ORD ID 2

1광운대학교 방위사업학과
2광운대학교

Accredited

ABSTRACT

This study quantitatively analyzed the operational effectiveness of helicopter Manned–Unmanned Teaming (MUM-T) across plains, urban, and mountainous environments. To this end, the Army Weapon Effectiveness Analysis Model (AWAM) was enhanced to conduct integrated simulations of attack helicopters operating in concert with reconnaissance-and-loitering (suicide) unmanned aerial vehicles (UAVs). The survivability of helicopters and the tank destruction rate were compared between manned-only operations and combined manned–unmanned operations. The analysis showed that MUM-T operations outperformed manned-only operations in every terrain type. In plains, the tank destruction rate increased by 1.13 and helicopter survivability by 1.04. In urban terrain, the tank destruction rate rose by a factor of 5.07 and helicopter survivability by 1.91, while in mountainous terrain they increased by factors of 3.96 and 1.62, respectively. These results are attributed to the advance deployment of UAVs, which suppressed enemy air-defense weapons and provided real-time target data to support precision strikes. Given that more than 90 percent of the Korean Peninsula consists of mountainous and urban areas, building MUM-T capabilities into future attack-helicopter forces is essential. In particular, systematic comparison and validation are required for various operational models—such as helicopter–vertical-takeoff-and-landing (VTOL) drone teaming, helicopter–Air-Launched Effects (ALE) teaming, and hybrid helicopter–VTOL–ALE configurations—while simultaneously securing key technological infrastructures, including real-time sensor-to-shooter networks, AI-based situational awareness and decision-support systems, and high-reliability data links. By incorporating terrain variables—plains, urban, and mountainous—into simulation experiments, this research provides empirical evidence of MUM-T’s operational benefits and offers foundational data to guide the Republic of Korea military's force development and doctrinal advancement of manned–unmanned teaming systems.

Citation status

* References for papers published after 2025 are currently being built.