Best Attack Position Model for BVR Multi-Target Air Combat

Rong Yang; Fang Ming Huang; Hua Jun Gong

doi:10.4028/www.scientific.net/AMR.1016.511

Paper Titles

Numerical Experiment of a Symmetrical Airfoil with Attack Angle of 5 Degrees in Fluctuating Relative Flow Velocity
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Research on Numerical Simulation of Support Interference for Dynamic Derivatives at Hypersonic Flight Speeds
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Numerical Simulation of Powered High-Lift Flow
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Analysis of an Airdrop Motion Coupling N-S Equations with 6 DOF Motion Equations
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Best Attack Position Model for BVR Multi-Target Air Combat
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Analysis of an Aero-Engine Gas Path Fault Monitoring Sensor Model
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On the Physical Mechanism of the Interaction of the Microwave Radiation with the Semiconductor Diodes
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Aeroacoustics Investigation of an Automotive Exhaust Muffler
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Assessment of Real Gas Effects on Approximate and Boundary Layer Equations for Hypersonic Laminar Flow over Axisymmetric Bodies
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Best Attack Position Model for BVR Multi-Target Air Combat

Abstract:

Refer to the characteristics of BVR air combat and multi-target attack for the Fourth Generation Fighters, this paper constructs and computes the model of probability distributions in multi-target kill zone, the model of the best attack path/attack position of multi-target attack. The model of probability distributions in multi-target kill zone considers heading angle and approaching angle of target, distance between fighter and target, maximum off-boresight launching angle and killing angle. The model of the best attack path/attack position considers damage probability to targets by missiles, threat degree to fighter of targets, and threat degree to fighter of residual targets. The paper calculates the simulation data according to the models, analyzes probability distributions in multi-target kill zone of missiles, the best attack path/attack position. The models and simulated results show that the method, which uses kill zone probability model, can improve the damage probability and reduce threat degree from enemy targets.