| Citation: | NIU Deqing, WU Youli, XU Yang, et al. Modeling of anti-jamming effectiveness evaluation of infrared air-to-air missile[J]. Journal of Beijing University of Aeronautics and Astronautics, 2021, 47(9): 1874-1883. doi: 10.13700/j.bh.1001-5965.2020.0334(in Chinese)
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In order to estimate the performance of infrared air-to-air missiles and improve its combat effectiveness, an overall valid evaluation of missiles' anti-jamming capability is required. However, due to the infinite number of countermeasure situations, most scholars currently study and analyze them based on typical countermeasure scenarios, which is inadequate. For this reason, the improved Latin hypercube sampling method was used to design sampling points in the whole range. Firstly, the infrared countermeasure principle and simulation system were explained and constructed, and the range and the type of input parameters were determined. Secondly, the Latin hypercube sampling method was improved and optimized, and the generated sampling results were discretized as needed to meet the needs of the decoy discrete parameter setting. Finally, the initial parameter combinations generated above were used to run the simulation system, and the obtained data were given to the random forest model as learning sample sets. After tuning the parameters and adjusting the loss matrix, the anti-jamming effectiveness evaluation model of the infrared air-to-air missiles was obtained and the prediction accuracy was 90.4%. Through simulation, the effectiveness of the model was verified under different IR countermeasures and different measurement errors..
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