Development of a model for detecting malfunctions during the maintenance of aircraft units and systems

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Today, we can single out a number of promising reusable launch vehiclesSV Wing” – a reusable cruise stage of a light-class launch vehicle; “Baikal-Angarareusable booster of the first stage of the Angara launch vehicle; “Soyuz-7is a reusable two-stage medium-class launch vehicle; flight design tests of Soyuz-7are planned for 2025. To maintain the operational characteristics of aircraft, it is necessary to develop a maintenance system that ensures the specified reliability of aircraft assemblies. The purpose of this work is to develop a model for detecting malfunctions in the process of maintenance of units and systems of aircraft. Within the framework of this work, an algorithm has been developed, which is based on the method of statistical testing, which allows, at low computer time, to analyze the maintenance process in more detail, taking into account the duration of individual operations and their effectiveness. Data on the duration and efficiency of individual operations can be obtained in the process of special tests of equipment by timing and analysis of service results. For modeling it is necessary to have the following initial data: the law of distribution of the duration of individual operations; the effectiveness of troubleshooting during individual operations. The algorithm implements two types of maintenance: full and reduced. Reduced maintenance provides for operations that are most effective in terms of the number of faults to be eliminated: adjustments, adjustments, search for faulty elements. The developed model makes it possible to investigate the possibility of reducing the downtime for maintenance without a significant decrease in the quality of maintenance, namely: to assess the effectiveness of maintenance when it is carried out according to the full and reduced scheme; evaluate the effectiveness of maintenance when performing maintenance in a limited time; justify the most appropriate ways to improve the quality of service, provided that the downtime for maintenance is limited and predict the likelihood of detecting malfunctions during the maintenance process. The practical significance of the results of this work can be achieved in the aerospace industry, in particular, at the design stage (testing and operation) of a maintenance system for reusable elements of launch vehicles.

作者简介

Evgeny Gusev

Moscow Aviation Institute (National Research University)

编辑信件的主要联系方式.
Email: ccg-gus@mail.ru

senior lecturer of the department, 610 Management of the operation of rocket and space systems

俄罗斯联邦, 4, Volokolamsk Highway, Moscow, 125993

Vladimi Rodchenko

Moscow Aviation Institute (National Research University)

Email: rodchenko47@mail.ru

Dr. Sc., Professor of the Department, 610 Operational management of rocket and space systems

俄罗斯联邦, 4, Volokolamsk Highway, Moscow, 125993

参考

  1. Mironychev V. P. [Methods and methods of troubleshooting in radio electronic systems]. Vologdinskie chteniya. 2009, No. 73, P. 74–77 (In Russ.).
  2. Sugak E. V. et al. Nadezhnost’ tekhnicheskikh sistem [Reliability of technical systems]. Krasnoyarsk, NII SUVPT, MGP Rasko Publ., 2001, 608 p.
  3. Ksendz S. P. Diagnostika i remontoprigodnost’ radioelektronnykh sredstv [Diagnostics and maintainability of radio-electronic equipment]. Moscow, Radio i svyaz Publ., 1989, 248 p.
  4. Vyyavlenie prichin otkazov REA [Revealing the causes of REE failures]. Ed. L. G. Dubitsky, Moscow, Radio i svyaz Publ., 1983, 232 p.
  5. Dmitrievsky E. S. Konstruktorsko-tekhnologicheskoe obespechenie ekspluatatsionnoy nadezhnosti aviatsionnogo radioelektronnogo oborudovaniya [Design and technological support for the operational reliability of aviation radio-electronic equipment]. St. Petersburg, 2001, 88 p.
  6. Patraev V. E., Shangina E. A. Nadezhnost’ tekhnicheskikh sistem kosmicheskikh apparatov [Reliability of technical systems of spacecraft: a tutorial]. Krasnoyarsk, Siberian Federal University Publ., 2019, 64 p.
  7. Patraev V. E. Metody obespecheniya i otsenki nadezhnosti kosmicheskikh apparatov s dlitel’nym srokom aktivnogo sushchestvovaniya [Methods for ensuring and assessing the reliability of spacecraft with a long active life]. Krasnoyarsk, Sib. state aerospace un-t Publ., 2010, 136 p.
  8. Zolotov A. A., Nurulaev E. D. [Methods for increasing the efficiency of control of units of rocket and space technology]. Vestnik MAI. 2015, Vol. 22, No. 4, P. 46–52 (In Russ.).
  9. Galleev A. G., Zolotov A. A., Perminov A. N., Rodchenko V. V. Ekspluatatsiya ispytatel’nykh kompleksov raketno-kosmicheskikh sistem [Operation of test complexes of rocket-space systems]. Moscow, MAI Publ., 2007, 260 p.
  10. Gusev E. V., Zolotov A. A., Rodchenko V. V. [Technique for optimization of maintenance parameters and reliability indicators of complex technical systems operating on oxygen-hydrogen fuel]. Al’ternativnaya energetika i ekologiya. 2017, No. 1–3, P. 22–33 (In Russ.).
  11. Aleksandrov A. I. et al. Ekspluatatsiya radiotekhnicheskikh kompleksov [Operation of radio engineering complexes]. Moscow, Soviet radio Publ., 1976, 280 p.
  12. Gusev E. V., Zolotov A. A., Rodchenko V. V. [Forecasting indicators of maintenance of complex technical systems]. Polet. 2021, No. 8, P. 37–44 (In Russ.).
  13. Fitch E. S. Proactive maintenance for machanical system. Amsterdam: Elsevier Science, 2013, 339 p.
  14. Panday B. K. Failure Spase X Falcon 9. Sps-aviation, 2015, p. 10–12.
  15. Nikushkin N. V., Katsura A. V. [Solution of the problem of modeling aircraft maintenance systems]. Vestnik SibGAU. 2006, No. 4 (11), P. 46–49 (In Russ.).
  16. Gusev E. V. Svid. o gos. reg. programmy dlya EVM 2021619616 Rossiyskaya Federatsiya. Programma rascheta parametrov sistemy tekhnicheskogo obsluzhivaniya [Certificate of state registration of a computer program 2021619616 Russian Federation. Program for calculating the parameters of the maintenance system]. No. 2021618549; app. 07/02/2021; publ. 07.15.2021.
  17. Gusev E. V. [Development of a software package for predicting the parameters of maintenance of complex systems]. Perspektivy nauki. 2021, No. 7 (142), P. 31–35 (In Russ.).

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