D.A. Kopylov1, M.A. Minkin2, A.M. Neshcheret3
1-3 JSC “SIB RS” (Samara, Russia)
1 kda@siprs.ru; 2 mma@siprs.ru; 3 nam@siprs.ru
Currently, there is a need to replace mirror antennas used on mobile communication complexes with phased array antennas, including active ones, with better electrical and mass-dimensional characteristics.
The purpose of the work is a theoretical and experimental study of the characteristics of a multi-element strip antenna array for subscriber terminals of satellite communication systems.
The above research results have shown that most of the side lobes of the radiation patterns of this multi-element strip antenna array are located in two mutually orthogonal planes, while, for example, in mirror antennas, the side lobes of the bottom are located around the main lobe of the bottom. This, in turn, is an advantage of this multi-element strip antenna array, since the probability of operation of the satellite communication system on the side lobes is reduced.
The research results allowed us to conclude that further work is promising in order to create new technical antenna solutions for subscriber satellite communication systems. Further development of the antenna array under consideration is associated with the use of digital diagramming circuits to control the beam of the radiation pattern.
Kopylov D.A., Minkin M.A., Neshcheret A.M. Multi-element strip antenna array for subscriber terminals of satellite communication systems. Radiotekhnika. 2025. V. 89. № 6. P. 170−178. DOI: https://doi.org/10.18127/j00338486-202506-18 (In Russian)
- Aleshin V.S., Titovec P.A., Suhorukova I.Ju., Anisimov M.A., Dogaev S.G. Issledovanie vozmozhnostej setej sputnikovoj svjazi na baze vysokojellipticheskih okolozemnyh orbit dlja reshenija zadach narodnogo hozjajstva Rossii. Otchet o NIR. № 2/2020-B ot 09.01.2020. M.: Izd-vo MTUSI. 2020 (in Russian).
- Dement'ev A.N., Kljuev D.S., Neganov V.A., Sokolova Ju.V. Singuljarnye i gipersinguljarnye integral'nye uravnenija v teorii zerkal'nyh i poloskovyh antenn. M: Radiotehnika. 2013. 2016 s. (in Russian).
- Rtishheva N.G., Skopinceva L.M. Razvitie mnogoluchevyh antenn v rossijskih sistemah sputnikovoj svjazi. Aktual'nye problemy aviacii i kosmonavtiki. 2017. T. 1. S. 466-468 (in Russian).
- Somov A.M., Titovec P.A. Zemnye stancii sputnikovoj svjazi s nezamknutym jekranom na reflektore odnozerkal'noj antennoj sistemy. Trudy Nauchno-issledovatel'skogo instituta radio. 2017. № 4. S. 23-29 (in Russian).
- Letunov A.A., Belousov O.A., Kolmykov R.Ju., Kolmykova A.S., Kurnosov R.Ju. Sintez gibridnoj zerkal'noj antenny dlja sistem nazemnoj sputnikovoj svjazi. Voprosy sovremennoj nauki i praktiki. Universitet im. V.I. Vernadskogo. 2015. № 4(58). S. 107-113 (in Russian).
- Bezgin A.A., Savochkin A.A. Dvuhchastotnaja pechatnaja antenna dlja morskih terminalov svjazi sputnikovoj sistemy Argos-3. Jelektronika i mikrojelektronika SVCh. 2015. T. 1. S. 270-273 (in Russian).
- Shepov V.N., Vladimirov V.M., Markov V.V. Shhelevye poloskovye antenny s krugovoj poljarizaciej dlja malojelementnoj antennoj reshetki vysokotochnogo priemnika signalov global'nyh navigacionnyh sputnikovyh sistem. Radiotehnika i jelektronika. 2017. T. 62 № 7. S. 662-671 (in Russian).
- Parnes M.D. Vsenapravlennaja antenna sputnikovoj svjazi sistemy «Gonec». Jelektronika i mikrojelektronika SVCh. 2015. T. 1.
S. 288-291 (in Russian). - Buchel'nikov A.V., Chernenko A.V. Kvadrifiljarnaja aktivnaja antenna dlja priema signalov sputnikovyh sistem GPS/GLO-NASS. Tehnika radiosvjazi. 2022. № 3(54). S. 54-61 (in Russian).
- Aleshin V.S. Ocenka realizuemosti aktivnoj fazirovannoj antennoj reshjotki terminala sistemy sputnikovoj svjazi «JeKSPRESS-RV». T-Comm: Telekommunikacii i transport. 2021. T. 15. № 8. S. 13-21 (in Russian).
- Buzov A.L., Minkin M.A., Morozov K.Ju., Neshheret A.M., Obshitikov A.I. Cifrovaja antennaja reshetka na baze programmiruemyh logicheskih integral'nyh shem dlja setej podvizhnoj radiosvjazi. Radiotehnika. 2024. T. 88. № 6. S. 23-30. DOI: https://doi.org/10.18127/j00338486-202406-04 (in Russian).
- Waterhouse R.B. Stacked patches using high and low dielectric constant material combinations. IEEE Trans. Antennas Propagat. Dec. 1999. V. 47. № 12. Р. 1767-1771.
- Waterhouse R.B. Design of probe-fed stacked patches. IEEE Trans. Antennas Propagat. 1999. V. 47. № 12. Р. 1780-1784.
- Averina L.I., Smuseva K.V., Uskov G.K. Proektirovanie antennyh reshetok dlja sistem massive MIMO SVCh-diapazona. Infokommunikacionnye i radiojelektronnye tehnologii. 2024. T. 7. № 3. S. 485-500 (in Russian).
- Uskov G.K., Smuseva K.V., Ochilova S.A. i dr. Shirokopolosnaja dvuhpoljarizacionnaja stacke patch antenna. Sb. nauchn. trudov Mezhdunar. nauch.-teh. konf. «Radiolokacija, navigacija, svjaz'» RLNS’2023 (g. Voronezh, 18-20 apr. 2023 g.). 2023. T. 4. S. 335-340 (in Russian).

