Stochastic Model of Functional Behavior of Radio Electronic Complex System for Detection of Low-Flying Unmanned Aerial Vehicles
DOI:
https://doi.org/10.47839/ijc.25.2.4648Keywords:
radio electronic UAV detection complex system, acoustic UAV detection system, optoelectronic UAV detection system, operational functional behavior of the complex system, mathematical modeling, discrete-continuous stochastic modelAbstract
A radio electronic complex system for detecting low-flying unmanned aerial vehicles is considered. It includes two acoustic systems, a repeater, an optoelectronic system, and an information control system. To determine the efficiency of the radio-electronic complex system, a discrete-continuous stochastic model of its operational functional behavior is developed. The degree of adequacy of the proposed discrete-continuous stochastic model of the operational functional behavior of the radio-electronic complex system is determined by the list of functionality indicators considered for the systems comprising it. A verbal model of operational functional behavior is built based on its functional algorithm. Functional indicators for each system in the stochastic model use “the probability of detecting unmanned aerial vehicles when they are in the corresponding controlled zone” and “the average values of the time intervals from the moment of appearance of unmanned aerial vehicles in the controlled zone to the moment of their detection by the corresponding system”. The stochastic model makes it possible to calculate the values of the functionality indicators of its systems for a given value of the radio-electronic complex system’s efficiency indicator. The results of validation experiments conducted on the developed stochastic model of the functional behavior of the radio-electronic complex system for detecting low-flying unmanned aerial vehicles are provided.
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