Critical infrastructure of the ground control complex for the orbital satellite constellation
Heading:
1Lysyi, MI, 1Sobchenko, VA, 1Partyka, SV, 2Lysyi, AM 1National Academy of the State Border Service named after B. Khmelnytskyi, Khmelnytskyi, Ukraine 2Khmelnytskyi National University, Khmelnytskyi, Ukraine |
Space Sci. & Technol. 2024, 30 ;(5):75-86 |
https://doi.org/10.15407/knit2024.05.075 |
Publication Language: Ukrainian |
Abstract: The article is devoted to determining the priority of objects of the ground control complex of an orbital constellation of satellites as objects of critical infrastructure of the Russian Federation. The use of high-precision weapons, navigation, communications control, and transport increasingly depends on the functioning of the orbital constellation of satellites. The ground control complex for the orbital constellation of satellites of the Russian Ministry of Defense includes a Mission Control Center and more than a dozen stationary command and measurement points. The equipment of the ground-based orbital constellation control complex requires strict reference to the spatial-temporal operating parameters, especially for the Global Navigation Satellite System, which, in turn, determines the effectiveness of high-precision weapons guidance, targeting, and location of objects, the functioning of communications, transportation systems and other means comprising corresponding navigation receivers For spacecraft, and primarily for Global Navigation Satellite System satellites, the problem of having an onboard time scale of high stability is relevant, which is determined by the functioning of the unified time system, which is an integral part of both the ground control complex and the orbital constellation. In the most general terms, the basis of the unified time system of the ground-based control complex for the orbital satellite constellation is made up of time and frequency standards distributed throughout the territory of the Russian Federation, located mainly in ground-based command and measurement centers and measurement laboratories.
The unified time system is the most secure technical system, which is formed as a composite measure at the highest level of the hierarchy of accuracy classes of frequency standards. Therefore, the most significant control objects of the orbital constellation are equipped with group standards, which can be considered a criterion for classifying the objects of the ground control complex of the orbital constellation of satellites as the critical infrastructure of the Russian Federation. It was determined that the hierarchical sequence of importance for the critical infrastructure of the Russian Federation of objects in the unified time system of the orbital constellation of the satellite control complex takes into account GLONASS objects, the
standards of the State Service of Time and Frequency and determination of the parameters of the Earth’s rotation of the Russian Federation, as well as the standards of the «Quazar KTS» complex. |
Keywords: critical infrastructure, ground control complex for an orbital constellation of satellites, system unified time |
References:
1. Blinov I. Yu., Bandura A. S., Batura A. S., Belov L. Ya. E., Krupskaia A. V., Skobelin A. A., Tyulyakov A. E. (2022). The system of unified time of the Russian Federation - overcoming new challenges. Radionavigation and time: Proc. JSC Concern for ASD «Almaz-Antey», 10, No. 1, 8-20 [Іn Russian].
2. Herasymiuk O. V., Lysyi M. I., Babii Yu. O., Tkachuk P. S., Baikov O. B. (2018). Methdology for determining the location of potentially dangerous objects in the zone of regional armed conflict. Collection of scientific works of NASBGSU: Military and Technical Sciences, No. 3 (77), 209-221 [In Ukrainian].
3. Donchenko S. I. (2023). Improvement of the state primary standard of time units, frequency, and the national time scale in the interests of developing systems and means of coordinate-time and navigation support for consumers. Proc. Conf. “Radionavigation and Time 2023” (Saint Petersburg, June 29-30, 2023) [Іn Russian].
2. Herasymiuk O. V., Lysyi M. I., Babii Yu. O., Tkachuk P. S., Baikov O. B. (2018). Methdology for determining the location of potentially dangerous objects in the zone of regional armed conflict. Collection of scientific works of NASBGSU: Military and Technical Sciences, No. 3 (77), 209-221 [In Ukrainian].
3. Donchenko S. I. (2023). Improvement of the state primary standard of time units, frequency, and the national time scale in the interests of developing systems and means of coordinate-time and navigation support for consumers. Proc. Conf. “Radionavigation and Time 2023” (Saint Petersburg, June 29-30, 2023) [Іn Russian].
URL: https://rirt.ru/wp-content/uploads/2023/07/23_11_KS1_30.06_NIIFTRI_Fedot... (Last accesset 03.05.2024).
4. Categorization of critical information infrastructure objects. Methodological recommendations. (2019). StepLogic. 149 p. [In Russian].
4. Categorization of critical information infrastructure objects. Methodological recommendations. (2019). StepLogic. 149 p. [In Russian].
URL: https://cisoclub.ru/wp-content/uploads/bp-attachments/180060/metodikaste... (Last accesset 03.05.2024).
5. Kovalskyi A. A., Afonin H. I., Tereshchenko S. V. (2017). Proposals on the main directions for modernizing the unified time system of the ground-based automated spacecraft control complex. MAI Proceedings, No. 97 [In Russian].
5. Kovalskyi A. A., Afonin H. I., Tereshchenko S. V. (2017). Proposals on the main directions for modernizing the unified time system of the ground-based automated spacecraft control complex. MAI Proceedings, No. 97 [In Russian].
URL: https://cyberleninka.ru/article/n/predlozheniya-po-osnovnym-napravleniya... (Last accesset 03.05.2024).
6. Pasynkov V. V., Surkis I. F., Titov E. V., Hulidov D. A., Shyrokyi S. M. (2022). Processing and analysis of VLBI observations of GLONASS spacecraft by the Kvazar-KTS complex. Proc. Institute of Applied Astronomy RAS, No. 61, 3-25 [Іn Russian].
7. Rohov P. D., Lysyi M. I., Dobrovolskyi A. B. (2014). Improving the security system of high-risk objects based on technical tactics. Collection of scientific works of MI of Taras Shevchenko KNU, No. 45, 83-87 [In Ukrainian].
8. Romanov A. A., Cherkas S.V. (2020). Prospects for developing space forces of the Russian Federation in the context of modern trends in military and space activities [in Russian].
6. Pasynkov V. V., Surkis I. F., Titov E. V., Hulidov D. A., Shyrokyi S. M. (2022). Processing and analysis of VLBI observations of GLONASS spacecraft by the Kvazar-KTS complex. Proc. Institute of Applied Astronomy RAS, No. 61, 3-25 [Іn Russian].
7. Rohov P. D., Lysyi M. I., Dobrovolskyi A. B. (2014). Improving the security system of high-risk objects based on technical tactics. Collection of scientific works of MI of Taras Shevchenko KNU, No. 45, 83-87 [In Ukrainian].
8. Romanov A. A., Cherkas S.V. (2020). Prospects for developing space forces of the Russian Federation in the context of modern trends in military and space activities [in Russian].
URL: https://cyberleninka.ru/article/n/perspektivy-razvitiyakosmicheskih-voys... (Last accesset 03.05.2024).
9. Russian GLONASS navigation system is still being supported: what you need to know and what threats exist [Іn Ukrainian].
URL: https://ain.ua/2023/02/28/glonass-proty-ukrayincziv (Last accesset 03.05.2024).
10. Tiuliakov A. E., Belov L. Ya., Parshin P. N. (2018). State system of unified time and reference frequencies «Ttarget» in terms of objects and facilities of the Ministry of Defense of the Russian Federation state and prospects of development. Proc. Institute of Applied Astronomy RAS, No. 44, 126-132 [Іn Russian].
11. Krasuski K., Ciecko А., Grunwald G., Kirschenstein M. (2024). Improving positioning accuracy of aircraft using SPP method in GLONASS system. Archives of Transport, No 69 (1), 21-37.
9. Russian GLONASS navigation system is still being supported: what you need to know and what threats exist [Іn Ukrainian].
URL: https://ain.ua/2023/02/28/glonass-proty-ukrayincziv (Last accesset 03.05.2024).
10. Tiuliakov A. E., Belov L. Ya., Parshin P. N. (2018). State system of unified time and reference frequencies «Ttarget» in terms of objects and facilities of the Ministry of Defense of the Russian Federation state and prospects of development. Proc. Institute of Applied Astronomy RAS, No. 44, 126-132 [Іn Russian].
11. Krasuski K., Ciecko А., Grunwald G., Kirschenstein M. (2024). Improving positioning accuracy of aircraft using SPP method in GLONASS system. Archives of Transport, No 69 (1), 21-37.