롱샷 무인기를 활용한 유무인 협업 공대공 전술 개발
Manned-Unmanned Teaming Air-to-Air Combat Tactic Development Using Longshot Unmanned Aerial Vehicle
0
조회
0
다운로드
1
인용
0
참고문헌
키워드
초록
Manned-unmanned teaming can be a very promising air-to-air combat tactic since it can maximize the advantage of combining human insight with the robustness of the machine. The rapid advances in artificial intelligence and autonomous control technology will speed up the development of manned-unmanned teaming air-to-air combat system. In this paper, we introduce a manned-unmanned teaming air-to-air combat tactic which is composed of a manned aircraft and an UAV. In this tactic, a manned aircraft equipped with radar is functioning both as a sensor to detect the hostile aircraft and as a controller to direct the UAV to engage the hostile aircraft. The UAV equipped with missiles is functioning as an actor to engage the hostile aircraft. We also developed a combat scenario of executing this tactic where the manned-unmanned teaming is engaging a hostile aircraft. The hostile aircraft is equipped with both missiles and radar. To demonstrate the efficiency of the tactic, we run the simulation of the scenario of the tactic. Using the simulation, we found the optimal formation and maneuver for the manned-unmanned teaming where the manned-unmanned teaming can survive while the hostile aircraft is shot-downed. The result of this study can provide an insight to how manned aircraft can collaborate with UAV to carry out air-to-air combat missions.
Abstract
Manned-unmanned teaming can be a very promising air-to-air combat tactic since it can maximize the advantage of combining human insight with the robustness of the machine. The rapid advances in artificial intelligence and autonomous control technology will speed up the development of manned-unmanned teaming air-to-air combat system. In this paper, we introduce a manned-unmanned teaming air-to-air combat tactic which is composed of a manned aircraft and an UAV. In this tactic, a manned aircraft equipped with radar is functioning both as a sensor to detect the hostile aircraft and as a controller to direct the UAV to engage the hostile aircraft. The UAV equipped with missiles is functioning as an actor to engage the hostile aircraft. We also developed a combat scenario of executing this tactic where the manned-unmanned teaming is engaging a hostile aircraft. The hostile aircraft is equipped with both missiles and radar. To demonstrate the efficiency of the tactic, we run the simulation of the scenario of the tactic. Using the simulation, we found the optimal formation and maneuver for the manned-unmanned teaming where the manned-unmanned teaming can survive while the hostile aircraft is shot-downed. The result of this study can provide an insight to how manned aircraft can collaborate with UAV to carry out air-to-air combat missions.
참고문헌 (11)
- "Defense Advanced Research Projects Agency (DARPA)" (2021)[URL]
- Lee, J. Y., "Expanded kill chain analysis of mannedunmanned teaming for future strike operations", Master, pp.2014
- Park, J.S, "Speech Recognition based UAV Mission Control from Manned Aerial Vehicle", Proceedings of Spring Conference of the Korean Society for Aeronautical & Space Sciences (2018)
- Seo, W. I., "A Methodology for Evaluation Mission Suitability of Manned-Unmanned Aircraft Teaming for SEAD Missions", Journal of the Korean Society for Aeronautical & Space Sciences, 48(11), pp.935~943 (2020)
- Shin, B.H, "Cooperative Missions for a Number of Manned &Unmanned Aerial Vehicles", Proceedings of Fall Conference of the Korean Society for Aeronautical &Space Sciences (2014)
- Yi, C. J., "Manned-Unmanned Teaming–An Analysis of UAVs and Their Interoperability with Manned Aircraft", Journal of the Singapore Armed Forces, 42(1), pp.66~76 (2016)
- Kim, J. G., "Advancing the concept of air-to-air unmanned fighters using the COBRA model and exploring the development direction", KIDA Defense Review, (1625) (2016)
- Yang, J.H, "Robot Intelligence Technology and Applications", pp.561~569 (2012)
- Touzopoulos, P., "Constructing a 3D model of a complex object from 2D images for the purpose of estimating its Radar Cross Section(RCS)", Journal of Computation & Modeling, 7, pp.15~28 (2017)
- Zikidis, K., "Low Observable Principles, Stealth Aircraft and Anti-Stealth Technologies", Journal of Computations & Modelling, 4(1), pp.129~165 (2014)
- Adamy, D., "Introduction to Electronic Warfare Modeling" (2001), Artech House