Some features of the applied reliability of space control radar stations
1Lavrich, Yu.N, 1Plaksin, SV, 1Pogorelaja, LM, 1Bistrov, NI 1Institute of Transport Systems and Technologies of the National Academy of Sciences of Ukraine, Dnipro, Ukraine |
Space Sci. & Technol. 2021, 27 ;(3):13-27 |
https://doi.org/10.15407/knit2021.03.013 |
Publication Language: Ukrainian |
Abstract: Context. The space control radar stations carry out the extremely important functions, therefore, they must be extremely reliable, and ensuring reliability is one of the key requirements at all stages of their life cycle.
Objective. The goal of the work is the analyzing some aspects of ensuring reliability, caused by the peculiarities of the process of developing and manufacturing radar stations monitoring space, justifying the possibility of using the experience of a domestic developer in solving reliability problems in new samples.
Method. A comparative analysis of the methods of development, manufacturing and testing of complex technical systems, existing standards and the standard of the Chief Designer are used in the work.
Results. Some of the characteristic features of space control radar stations are given: uniqueness, single production, low repeatability and a large range, the impossibility of manufacturing and testing functionally complete systems directly under the manufacturer’s conditions. A number of features of design and manufacturing according to the standard of the Main Designer, which are absent in the existing standards, are considered, the necessity of developing new regulatory documents that take into account the specifics of the design and manufacture of space control radar stations is justified. From an applied point of view, a number of specific scientific and practical solutions for ensuring the reliability of space control radar stations of a domestic developer which may be used in further developments are presented. It has been established that many terms in the modern theory of reliability do not have an applied focus and do not allow increasing the accuracy of classifying the state of an object. It is shown that the creation of new generations of space monitoring radar stations is accompanied by the emergence of new scientific and practical tasks unknown to science, the solution of which is connected with the use of new scientific ideas and with the own developments of component elements. It is shown that the use of co-temporal elemental base in the design of space monitoring radar creates difficulties in ensuring the reliability of hierarchical levels, since testing by existing standards is possible only for lower levels of hierarchy. It is established that the existing standards of general technical requirements and methods of control and testing for products and radar stations are not always identical and it is impossible to ensure, that applying a highly reliable element base, we shall receive the same radar station reliability. Obviously, the new stage of ensuring reliability must be associated with the individual reliability of the elements themselves. It justifies the importance of the scientific task associated with the choice of control parameters of the modern generation of radar stations in the conditions of the impossibility of applying traditional control, which requires the interruption of their operation. The temperature as a function of time is proposed as a parameter for estimating the state of products. A number of ways to ensure the reliability of new generations of space monitoring radar stations based on the use of new information signals, as well as reliability models built into the element base for creating a system for collecting, storing and analyzing information — the same for all stages of the radio electronic equipment.
Conclusions. Taking into account the features of the design and manufacture of space monitoring radar stations and the practical experience of a domestic developer to solve reliability problems will ensure the creation of technology of highly reliable generations of space control radars and the development of stations of “high factory readiness”.
|
Keywords: applied reliability, built-in reliability, documentation of the Chief Designer, element base, space monitoring radar |
References:
1. Agamirov L. V., Ostyakov Yu. A., Sokolov V. P., Shevchenko I. V. (2016). Ensuring the reliability and safety of complex techni-cal systems. Moscow: MSTU [in Russian].
2. Azarenkov V. I. (2016). On the issue of ensuring the reliability of electronic equipment of weapons and military equipment.Technology and design in electronic equipment, No 1(45), 133–139 [in Russian].
3. Boev S. F. (2017). The risk management of design and creation of early warning radars. Moscow: MSTU [in Russian].
4. Zhdanov V. V. (2013). Analysis of forecasting models and calculation of reliability of component parts of on-board electronic equipment. Reliability and quality: Proceedings of the international symposium, 1, 28—31 [in Russian].
5. Klochkova D. V., Sidnyaev N. I. (2013). The main factors of operational reliability of powerful transmission units. Science and innovation, 12, 1—19 [in Russian].
6. Lavrich Yu. N. (2013). Study of the effect of long-term storage on the characteristics of solar cells. Proceedings of “Semiconduc-tor materials, information technology and photovoltaics” (Kremenchug, 2013), 79—80 [in Russian].
7. Lavrich Yu. N. (2015). Thermal monitoring as a method for assessing the technical condition of digital electronic systems. Technology and design in electronic equipment, No 4, 36–41 [in Russian].
8. Lavrich Yu. N. (2015). Features of ensuring the thermal regime of powerful radio transmitting systems. Proceedings of ”Modern information and electronic technologies”: 16th International Scientific and Practical Conferenc(Odessa, 2015), 140—141 [in Russian].
9. Litvinenko R. S., Bagaev A. V., Yamschikov A. S. (2016). The practical application of the exponential distribution law in assessing the reliability of technical objects. Scientific Almanac, No9-10(23), 427—431 [in Russian].
10. Litvinenko R. S., Idiyatulin R. G., Auhadeev A. E. (2016). Analysis of the use of exponential distribution in the theory ofreliability of technical systems Reliability and quality of complex systems. 2 (14), 17—22 [in Russian].
11. Maximenkov A., Dolin M. (2007). The main directions of the development of radar warning systems for nuclear missile strike and space control of the United States. Foreign military review, No 9, 37—66.
12. Markovskiy A. S., Samsonov A. V., Svekolkin N. I. (2016) Place and role of quality control processes in the life cycle of weapons systems software. Proceedings of the Military Space Academy named after A. F. Mozhaisky, 119—128 [in Russian].
13. Scherbak L. N. (2011). Axioms of Reliability Theory. Electronics and control systems, No 3(29), 141—148 [in Russian].
14. Directive 2011/65/EU of the European Parliament and of the Council of 8 June 2011 on the restriction of the use of certain hazardous substances in electrical and electronic equipment Text with EEA relevance OJ L 174, 1.7, 88–110.
15. Green T., Terlizzi T. (2014). New Technology Challenges in Military Space. Microcircuits. Test, Assembly & Packaging Times, 5(4), 39—45.
16. Hansen M., Nesbit M. (2000). Report of the Defense Science Board Task Force on Defense Software. Washington: Defense Science Board, 59p.
17. Ushakov I. A. (2006). Reliability: past, present, future. Reliability: Theory & Applications, No 1, 17–27.
18. Wong Kam L. (1990). What is wrong with the existing reliability prediction method? Quality and Reliability Engineering International, 251—257.