А.Yu. Grinev – Dr.Sc. (Eng.), Professor,

Moscow Aviation Institute (National Research University) (Moscow)

E-mail: grinevau@yandex.ru

А.А. Izmaylov – Post-graduate Student, 

Moscow Aviation Institute (National Research University) (Moscow)

E-mail: yustas1993@yandex.ru

А.А. Tsitovich – Engineer of the 1st category,  FSUE «RPS «Istok» (Fryazino, Moscow region)

E-mail: alekseytsitovich@gmail.com

The technique of analytical estimates of the main parameters and characteristics of two-dimensional antennas based on frequencyselective structures with partially reflecting surface properties (structure and geometry, working frequency band, gain, directivity pattern, etc.) is considered. The paper contains summarizes of the results obtained as an equivalent circuits based on the T-wave model, and on the model of a two-dimensional leaky-wave antenna.

The article proposes a method of analytical evaluation of the main parameters and characteristics of antenna systems based on frequency selective structures (structure and geometry, operating frequency band, gain, radiation pattern, etc.), summarizing the results obtained by the method of equivalent circuits based on the transverse equivalent network-wave model and the model of twodimensional leaky-wave antenna. The advantages of two-dimensional antenna systems based on frequency-selective structures with properties of partially reflecting surface are: low price, simplicity and manufacturability of design, high gain (with a reasonable compromise with the operating frequency band), high aperture efficiency. Such as are promising in the development of flat effective microwave and HF antenna arrays for frequencies of the order of 30…40 GHz and above, sparse antenna arrays (scanning in a limited sector), combined AP in one aperture (for example, X and C; and), etc.

Grinev А.Yu., Izmaylov А.А., Tsitovich А.А. Antennas based on frequency-selective surfaces (FSS) with partially reflective surface properties (PRS). Electromagnetic waves and electronic systems. 2019. V. 24. № 1. P. 36−50.  DOI: 10.18127/j15604128-201901-06

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