Realization of the technology of dual use of outer space control means
| 1Lavrich, Yu.N, 2Bistrov, MI, 3Prysiazhnyi, VI, 1Pyaskovskiy, DV 1Institute of Transport Systems and Technologies of the National Academy of Sciences of Ukraine, Dnipro, Ukraine 2Design Bureau “Dniprovske”, Dnipro, Ukraine 3National Center of Space Facilities Control And Test, State Space Agency of Ukraine, Kyiv, Ukraine |
| Space Sci. & Technol. 2023, 29 ;(4):127-140 |
| https://doi.org/10.15407/knit2023.04.127 |
| Publication Language: Ukrainian |
Abstract: Context. The radar means of outer space control are monofunctional systems, despite their potential multifunctionality. To ensure the effective implementation of target functions, only some of the total number of potential functions are used, other existing functions are not studied and as a result, don’t used. The target functions of most existing domestic and foreign radiolocation stations on space control RLS SC are practically reduced only to the control of space objects in different orbits. The obtained information is not fully used, so the new target doesn’t form. As the history of the development of defense complexes shows, in most industrialized countries there are examples of the use of military developments for civilian purposes (spin-off) and civilian developments for military purposes (spin-on). As a result of these synergy processes emphasis on the strategy of double technologies and double innovation increased.
Objective. The aim of the work is to study the possibility of introducing an ionospheric channel into the domestic radar station 5N86 Dnipro (Hen House) and expanding its intended use by using most of its functional systems to implement the ionosphere control function.
Method. The paper uses a comparative analysis of the main functional systems and technical characteristics of the 5N86 Dnipro radar and non-coherent scatter radars (PHR) of the global ionosphere control network.
Results. The main characteristic features of the RLS 5N86 are analyzed and, taking into account the characteristics of the signals, the possibility of using the multifunctionality of the radar to form a new target function for monitoring outer space is substantiated. From an applied point of view, a number of specific scientific and practical solutions are given, aimed at the realization of dual-purpose technology in the implementation of the ionosphere control function by a radar station - both for solving the problems of increasing the own efficiency and for the interests of fundamental science. It is shown that the creation of new target RLS is based on both the use of already existing systems and the introduction of new ones. The importance of the scientific task on the implementation of the ionosphere control function and the possibility of integrating into the global ionosphere control network is substantiated.
Conclusions. The presence of scientific and technical developments and the practical experience of the domestic RLS SC developer makes the new target function realization absolutely realistic. The implementation of the double-purpose technology will ensure an effective solution for both applied and fundamental scientific tasks.
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| Keywords: incoherent scattering radars (ISR), ionosphere, radiolocation stations on space control (RLS SC), radiolocation. |
References:
1. Burmaka, V.P., Taran, V.I. & Chernogor, L.F. (2004) Radar observations of wave processes in the ionosphere that accompany spacecraft flights. Space science and technology, No. 5-6 (36), 113-116 [in Russian].
2. Pankova, L.V. & Kalenov, S.Yu. (2016)Priorities of dual-purpose foreign R & D. M: IMEMO RAN, 23 p. [in Russian].
3. Andreev, F.M., & Kovbasyuk, S.V. (2009) Opportunities of a multi-position complex created on the basis of national radars for the ballistic and space objects over-horizontal detection. Space science and technology, 15(5), 74-81 [in Russian].
https://doi.org/10.15407/knit2009.05.074
4. Lavrich Yu.N., Netak B.B., Plaksin S.V. & Piaskovsky D.V. (2019) Features of the domestic school of radar systems for space control. Science and Innovations, No. 15 (2), 80-90 [in Russian].
https://doi.org/10.15407/scin15.02.080
5. The concept of state policy realization in the field of space activity for the period up to 2032. ( 2012). Kyiv: State Space Agency of Ukraine], 48 p. [in Ukrainian].
6.Emelyanov L.Ya., Zhivolup T.G. Institute of the Ionosphere of the National Academy of Sciences and the Ministry of Education and Science of Ukraine. Brief historical review//Bulletin of the National Technical University "Kharkiv Polytechnic Institute". Collection of scientific works. Thematic issue: Radiophysics and the ionosphere. - Kharkiv: NTU "KhPI". 2011. No. 44. p.3-10.
7. Morgun, AA, Polyakov, A.L. & Lomonosov, S.E. (2012) An analysis of the expansion of the spectrum for individual radiotechnical systems. Issue of scientific works of the Kharkiv University of Air Force. Issue 4(33), 103-107 [in Ukrainian].
8.Evans J. Theoretical and practical issues of the study of the ionosphere by the HP method//Tr. Inst. engineers in electronics and radio engineering, 1969, 57, no. 4, pp139-145.
9. Berezovsky, V.A., Zolotarev, I.D., Vasenina, A.A. & Sveshnikov, Yu.K. (2011) Determining the parameters of the shortwave radio line on the results of ionosphere return-inclined sounding. Vestnik Omskogo. un-ta [Bulletin of Omsk. University], No 2, 98-102 [in Russian].
10. Ponomarchuk, S.N., Kurkin, V.I. & Penzin M.S. (2017) The research of the oblique-backward ionosphere sounding peculiarities on the base on the LFM ion-probe. The Solar-earth physics, 3(3), 61-69 [in Russian].
https://doi.org/10.1109/PIERS.2017.8261951
11. Zherebtsov, G.A. (2012) Seismoionospheric and seismoelectromagnetic processes in the Baikal rift zone. Novosibirsk: SB RAS, 304 p. [in Russian].
12. Scientific and technical report: Development of software and algorithmic support for the ionospheric channel (2014). M.: FGUBN ISZF SO RAN, 66 p. [in Russian].
13. Bogomaz, A.V. (2013) Influence of the Spectrum Width of a Sounding Radio Pulse on the Accuracy of Calculating the Ionospheric Plasma Parameters in the Radio Waves Incoherent Scattering Method. Radio engineering, Issue. 174, 27-31 [in Russian].
14. Bilitza, D. & Reinisch, B.W. (2008) International Reference Ionosphere 2007: Improvements and new parameters. Adv. Space Res. 42, I. 4, 599.
https://doi.org/10.1016/j.asr.2007.07.048
15. Teterin, K.A. (2014) Regional'naya adaptacziya modeli ionosfery' IRI s ispol'zovaniem danny'kh vozvratno-naklonnogo zondirovaniya [Regional adaptation of the IRI ionospheric model using oblique-backward sounding data]. Geliogeofizicheskie issledovaniya [Heliogeophysical researches], Issue 7,103-107 [in Russian].
16. Emelyanov, L.Ya. & Chepurny, Ya.N. (2017) Ensuring the mode of simultaneous sounding of the ionosphere in the vertical and oblique directions using incoherent scatter radars. Bulletin of NTU "KhPI". No. 47 (1268), 44-50 [in Russian].
17. Prysiazhnyi, V.I. & Yatskiv, Ya.S. (2021) About the cooperation of the National Academy of Sciences of Ukraine and the State Space Agency of Ukraine on the creation of the space environment control and analysis system. Bulletin of the National Academy of Sciences of Ukraine. No 12. 85-89 [in Ukraiian].
18. Lavrich Yu.M., Plaksin S.V., Pogorila L.M., Pyaskovsky D.V., Shcherbakov O.P..A method for ionosphere monitoring with a radar control space station. Pat. 141158 Ukraine, Publ. 03.25.2020, Bull. 6 [in Ukraiian].