항공작전 효과를 고려한 전투기와 비행기지 할당 최적화 모형
An Optimal Matching Model for Allcocating Fighter-Aircraft and Air-operation Base
0
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
Airpower is a crucial force for suppressing military threats and achieving victory in wars. This study evaluates newly introduced fighter forces, considering factors such as fighter performance and power index, operational environment, capacity of each airbase, survivability, and force sustainment capability to determine the optimal deployment plan that maximizes operational effectiveness and efficiency. Research methods include optimization techniques such as MIP(mixed integer programming), allocation problems, and experimental design. This optimal allocation mathematical model is constructed based on various constraints such as surviv- ability, mission criticality, and aircraft's performance data. The scope of the study focuses the fighter force and their operational radius is limited to major Air Force and joint operations, such as air interdiction, defensive counter-air operations, close air support, maritime operations and so on. This study aims to maximize the operational efficiency and effectiveness of fighter aircraft operations. The results of proposed model through experiments showed that it was for superior to the existing deployment plan in terms of operation and sustainment aspects when considering both wartime and peacetime.
Abstract
Airpower is a crucial force for suppressing military threats and achieving victory in wars. This study evaluates newly introduced fighter forces, considering factors such as fighter performance and power index, operational environment, capacity of each airbase, survivability, and force sustainment capability to determine the optimal deployment plan that maximizes operational effectiveness and efficiency. Research methods include optimization techniques such as MIP(mixed integer programming), allocation problems, and experimental design. This optimal allocation mathematical model is constructed based on various constraints such as surviv- ability, mission criticality, and aircraft's performance data. The scope of the study focuses the fighter force and their operational radius is limited to major Air Force and joint operations, such as air interdiction, defensive counter-air operations, close air support, maritime operations and so on. This study aims to maximize the operational efficiency and effectiveness of fighter aircraft operations. The results of proposed model through experiments showed that it was for superior to the existing deployment plan in terms of operation and sustainment aspects when considering both wartime and peacetime.
참고문헌 (18)
- Air Force Combat Development Center, "2023 Latest Aerospace WeaponsHand book", 164~256 (2024)
- Cho, S. H., "Combinatorial Optimization Model of Air Strike Packages Based on Target Groups", Journal of the Korean Institute of Industrial Engineers, 42(6), pp.386~394 (2016)
- Dunnigan, J. F., "How to Make War", pp.172~180 (2003), Quill
- Hong, S. P., "Management Science" (2014), Yulgok Publishing
- Jang, G. W., "Optimal Combination Model for Carrier Strike Group Considering the Naval Ship’s Power Index", Journal of the Korean Institute of Industrial Engineers, 49(1), pp.1~14 (2023)
- Jo, K. H., "The Optimum Size of ROK Air Force Fighters Responding to North Korea’s Nuclear and Missile Threats : The Fighter Requirement for an Offensive Air Campaign", Shinasia, 26(1), pp.145~159 (2019)
- Jung, C. Y., "An Optimal Missile Allocation Problem for Maximizing Kill Probability", Journal of The Korean Operations Research and Management Science Society, 27, pp.75~90 (2010)
- Jung, K. J., "A Study on the Mission Effectiveness Analysis of Light Fighters in Air-To-Air and Air-To-Ground Missions", Journal of Korean Institute of Military Science and Technology, 1(1), pp.92~113 (1998)
- Kim, H. G., "Air Force Fighter Effectiveness Index Calculation Study", Proceedings of the 2007 Aerospace Weapon System Development Seminar, pp.297~313 (2007), Air Force Headquarters
- Kim, H. S., "An Optimization Model for Determining the Number of Military Cargo-plane", Journal of Korea Society of Industrial and Systems Engineering, 46(4), pp.166~169 (2023)
- Kim, Y. R., "Decision Making Theory" (2020), MyungKyungSa
- Lee, S. H., "Optimal Allocation Model of KDX for Missile Defence", Journal of The Korea Society For Simulation, 15(4), pp.71~76 (2006)
- Lee, S. R., "The Robust Artillery Locating Radar Deployment Model Against Enemy's Attack Scenarios", Journal of Korea Society of Industrial and Systems Engineering, 43(4), pp.217~228 (2020)
- Lim, S. M., "A Comparative Study of 4th and 5th Generation Fighter Combat Effectiveness", Journal of The Korean Society for Aeronautical and Space Sciences, Proceedings of the Conference, pp.430~433 (2007)
- Lim, S. M., "A Study on the Quantitative Method of Static Combat Effectiveness for Jet-Fighter Generation", Journal of Korean Institute of Military Science and Technology, 15(5), pp.643~650 (2012)
- Park, I. G., "A Study on the Deployment Plan of Fighter Aircraft Considering the Threat of Enemy Missiles", Journal of The Korea Society For Simulation, 29(4), pp.47~54 (2020)
- Park, J.H., "A Study on Estimating Maximum Range Capability and Firing Information Based on Observed Data of Launched Ballistic Missiles", Journal of Military Operation Research Society of Korea, 49(1), pp.1~16 (2023)
- Republic of Korea Air Force Headquarters, "Operations", Doctrine Development Division, 79~102 (2023)