

Unerroric of vibration diagnostics of a hydrogen engine
https://doi.org/10.15518/isjaee.2023.07.070-081
Abstract
The issues related to the study of the possibility of digitalization of the reliability control of hydrogen engines are considered. The relevance of the study is due to the digital transformation of the economy. The purpose of the study is to develop software for vibration diagnostics of hydrogen engines to reduce the hardware complexity of its implementation on programmable logic integrated circuits. The methods of software modeling were used in the study. The re-sults of the study showed and confirmed the possibility of reducing the error of controlling the vibration levels of a hydrogen engine by recurrent methods of multiband difference digital filtration. The model experiment allowed us to determine the conditions for the implementation of recurrent algorithms for comparative evaluation of the vibration level of such an engine.
About the Authors
A. Yu. BurovaRussian Federation
Adeliya Burova - Senior Lecturer of the Department "Metrology, Standardization and Certification
125993, Volokolamskoe shosse, 4, Moscow
V. A. Mamonov
Russian Federation
Valery Mamonov - PhD in Laws, counselor
119071, Leninsky prospect 31, Moscow
N. A. Bulychev
Russian Federation
Nikolay Bulychev - D.Sc. in Chemistry, professor
125993, Volokolamskoe shosse, 4, Moscow
References
1. . Bulychev, N.A. Unerroric of control of mutual compliance of the efficiency of hydrogen engines of unmanned vehicles in the conditions of mass production / Burova, A.Y. // International Journal of Hydrogen Energy – 2022, 47(63) – pp. 26789–26797.
2. . Burova A.Yu. «Unerroric» of multistage discrete Fourier transform of digital signal without arithmetic operations of multiplication / Kabakov V.V. // Amazonia Investiga, 2020 – Vol. 9 – No. 25 – pp. 429-437.
3. . Burova A.Yu. Reducing the Error of Digital Algorithms for Deductive Signal Processing Based on Their Multi-Stage Discrete Fourier Transform by the Difference Digital Filters // 22th International Conference on Digital Signal Processing and its Applications – 2020 – 9213275.
4. . Burova, A.Yu. Methods and algorithms of turbojet engines thrust parameters control unerroric. Journal of Physics: Conference Series, 2021, 2096(1), 012060.
5. . Burova, A., Ryapukhin, A. Unerroric of turbojet engines thrust asymmetry control for flight safety // Journal of Theoretical and Applied Information Technology, 2022, 100(21), pp. 6482–6489.
6. . Burova A.Yu. Minimization of asymmetry of thrust of the dual-flow turbojet engines of the airliner in accordance with the results of the system analysis of the thrust parameters // Asia Life Sciences Supplement – 2019 – Vol. 21 – I. 2 – pp. 629-643.
7. . Demidov, A.S., Kashelkin, V.V., Kapustin, E.A. Evaluation of the Stress State of a Box Shell Made from Material with Different Tensile and Compressive Properties // Russian Aeronautics, 2019, 62(2), pp. 337–341.
8. . Li, Y., Volkov, A.V., Rabinskiy, L.N., Shemiakov, A.O. Numerical modeling of scale effects for circular cylinder in the theory of thermoelastic materials with voids // Journal of Applied Engineering Science, 2020, 18(4), stranitsy 671–675.
9. . Kozorez, D.A., Starkov, A.V. Distribution of Information Fluxes in Complex Systems // Russian Engineering Researchthis, 2022, 42(9), pp. 925–928.
10. . Sorokin, A.E., Gorbachev, S.I., Bulychev, S.N. Assessing the Environmental Impact of Products // Russian Engineering Research, 2022, 42(9), pp. 962–964.
11. . Bulychev, N.A. Synthesis of gaseous hydrogen and nanoparticles of silicon and silicon oxide by pyrolysis of tetraethoxysilane in an electric discharge under the action of ultrasound // International Journal of Hydrogen Energy, 2022, 47(84), pp. 35581–35587.
12. . Vityazev V.V. Tsifrovaya chastotnaya selektsiya signalov. – M.: Radio i svyaz', 1993. – 240 s.
13. . Vityazev V.V. Mnogoskorostnaya obrabotka signalov. – M.: Izdvo «Goryachaya liniya-TelekoM», 2017 g. – 336 s.
14. . Burova A.Yu. Digital signal processing without performing arithmetic multiplication operations // Amazonia Investiga – 2020 – Vol. 25 – pp. 200-205.
15. . Burova A.Yu. Concept of multistage discrete Fourier transform without performing multiplications // Journal of Physics: Conference Series – 2021 – Vol. 1889 – No. 2 – 022003.
16. . Burova A. Digital Signal Multi-Stage Discrete Fourier Transform and Its Practical Applications // 23rd International Conference on Digital Signal Processing and its Applications – 2021.
17. . Burova A.Yu. Automatic control of working car engine vibrations using multi-stage discrete Fourier transformation / Kabakov V.V. // Journal of Physics: Conference Series – 2020 – Vol. 1679 – No. 2 – 022025.
18. . Popov, V.Y., Kashelkin, V.V., Fedorov, M.Yu., Demidov, A.S. Assessment of the strength reliability of high-temperature heat exchangers with long service life at the design stage // Frattura ed Integrita Strutturale, 2021, 15(55), pp. 136–144.
19. . Shemyakov, A.O., Vladimirova, V.G., Zadorin, I.V. Expert Assessment of Approaches to Connectivity in Russia’s Arctic Regions // Russian Engineering Research, 2021, 41(3), stranitsy 281–283.
20. . Evdokimenkov, V.N., Kim, R.V., Kozorez, D.A. Standard Profiles in Assessment of the Current Condition of Onboard Aircraft Systems and Prediction of Faults // Russian Engineering Researchthis, 2022, 42(12), pp. 1299–1302.
21. . Ukhov, P. A., Dmitrochenko, B. A., & Ryapukhin, A. V. (2021). The practice of technological deception in videoconferencing systems for distance learning and ways to counter it. Amazonia Investiga, 10(40), 153-168.
22. . Ryapukhin, A.V., Karpukhin, E.O., Zhuikov, I.O. Method of Forming Varios Configurations of Telecommunication System Using Moving Target Defense // Inventions, 2022, 7(3), 83.
23. . Sotnikova, E.V., Sorokin, A.E., Bulychev, S.N. Assessing Urban Air Pollution // Russian Engineering Research, 2022, 42(12), pp. 1337–1339.
24. . Bulychev, N.A. Obtaining of gaseous hydrogen and silver nanoparticles by decomposition of hydrocarbons in ultrasonically stimulated low-temperature plasma // International Journal of Hydrogen Energy, 2022, 47(50), pp. 21323–21328.
25. . Burova A.Yu. Digital Algorithms for the Discrete Frequency Selection of Signals that Do Not Use Algorithmic Multiplication Operations / Usatenko T.O. // TEM Journal – 2020 – Vol. 9 – I. 2 – pp. 501-506.
26. . Burova A.Yu. Digital methods of discrete Fourier transform, allowing minimizing the number of algorithmic multiplication operations / Usatenko T.O. // Journal of Physics: Conference Series – 2021 – Vol. 1889 – I. 3 – 032035.
27. . Vityazev V.V., Vityazev S.V. Tsifrovye protsessory obrabotki signalov TMS320C67x kompanii Texas Instruments. – Ryazan': RGRTU, 2007. – 112 s.
28. . Steshenko V.B. PLIS firmy «ALTERA». Ehlementnaya baza, sistema proektirovaniya i yazyki opisaniya apparatury. – M.: DMK Press, 2016. – 576 s.
29. . Burova A.Yu. / Reduced hardware costs with software and hardware implementation of digital methods multistage discrete Fourier transform on program-mable logic devices / Ryapukhin A.V., Muntyan A.R. // Amazonia Investiga – 2020 – Vol. 27 – No.9 – pp. 227-233.
Review
For citations:
Burova A.Yu., Mamonov V.A., Bulychev N.A. Unerroric of vibration diagnostics of a hydrogen engine. Alternative Energy and Ecology (ISJAEE). 2023;(7):70-81. (In Russ.) https://doi.org/10.15518/isjaee.2023.07.070-081