Wu Zhigang, Yang Chao. Volterra series based transonic unsteady aerodynamics modeling[J]. Journal of Beijing University of Aeronautics and Astronautics, 2006, 32(04): 373-376. (in Chinese)
Citation: PENG Ke-mao, SHEN Gong-zhang, WEN Chuan-yuanet al. Research on Tactic to Delivery Guided Bomb with Laser[J]. Journal of Beijing University of Aeronautics and Astronautics, 2001, 27(1): 40-43. (in Chinese)

Research on Tactic to Delivery Guided Bomb with Laser

  • Received Date: 15 Oct 1999
  • Publish Date: 31 Jan 2001
  • The tactic to delivery guided bomb with laser is researched, while the laser bundle is transmitted by the fighter itself, that is to delivery guided bomb with laser in non-wing-level and to egress in turning. The major is to egress in turning, which synthesizes tactical requirement to shoot the target with the laser bundle and motive to egress. It can efficiently improve survival ability of the fighter to delivery bombs in maneuvering motion and to egress in curve. The condition to satisfy the two requirements is proposed with a simplified particle point model of the fighter and through analysis on the process that the fighter egresses in turning while continuously shoot the target with laser bundle. Simulations on the mission process prove that the proposed condition can satisfy the tactical requirements to delivery guided bomb with laser and to egress in turning while the fighter transmits laser bundle to shoot the target itself.

     

  • [1] 陆 彦.航空火力控制原理[M]. 西安:西北工业大学出版社,1989. [2] 彭可茂.综合控制与自动机动攻击技术研究 .北京:北京航空航天大学自动控制系,1998. [3] Bennett W S, Ramage J R. AFTI/F-16 AMAS configuration development and integration . In:IEEE Aerospace and Electronic Systems Society,eds. Proceeding of the IEEE 1986 National Aerospace Electronics Conference . Vol 2. New York:Institute of Electrical and Electronic Engineers Inc, 1986.538~549. [4] Grisword M R. AFTI/F-16 AMAS guidance and control . In:IEEE Aerospace and Electronic Systems Society,eds. Proceeding of the IEEE 1986 National Aerospace Electronics Conference . Vol 2. New York:Institute of Electrical and Electronic Engineers Inc, 1986.560~566.
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