The Influence of Wave Processes of Hydraulic Oils on the Operation of a Hydraulic Drive

Main Article Content

Iryna Hunko
Oleh Tsurkan
Serhiy Shargorodskiy
Taras Shchur
Hristo Beloev
Oleksandra Kovalyshyn
Marek Domin

Abstract

The paper reviews the state of research of wave processes in hydraulic systems of machines, and their impact on the quality and stability of hydraulic drives. As noted in the works of previous researchers, these phenomena occur in hydraulic systems and adversely affect the quality and stability of their work, significantly reducing reliability. The method of construction of mathematical models is offered. A mathematical model of the hydraulic system with two series-connected hydraulic motors is built, taking into account transients. The Runge-Kutta-Feldberg method with automatic change of the integration step was used to solve this model. The application of this method makes it possible to estimate the amplitude and frequency of the pressure wave in real time for each part of the pipeline. As a result of the analysis of the obtained transients it was concluded that at the length of the pressure line in a group hydraulic drive with 2 series-connected hydraulic motors up to 1.5 m, wave processes do not significantly affect the system and in the mathematical model they can be ignored. With the length of the pressure line from 1.5 m to 9 m, the wave processes in the cavity do not affect the stability of the system, although significantly impair the quality of its work. Hydraulic systems with a pressure line length of more than 9 m are not recommended for implementation, because the wave processes in the cavity lead to vibrations and noise in the hydraulic system and require additional measures to eliminate the impact of this phenomenon.

Article Details

How to Cite
Hunko, I., Tsurkan, O., Shargorodskiy, S., Shchur, T., Beloev, H., Kovalyshyn, O., & Domin, M. (2022). The Influence of Wave Processes of Hydraulic Oils on the Operation of a Hydraulic Drive. Agricultural Engineering , 26, 91-104. https://doi.org/10.2478/agriceng-2022-0008
Section
Articles

References

Karaiev, O., Bondarenko, L., Halko, S., Miroshnyk, O., Vershkov, O., Karaieva, T., Shchur, T., Findura, P., Prístavka, M. (2021). Mathematical modelling of the fruit-stone culture seeds calibration process using flat sieves. Acta Technologica Agriculturae, 24(3), 119-123.10.2478/ata-2021-0020

Havrylenko, Y., Kholodniak, Y., Halko, S., Vershkov, O., Miroshnyk, O., Suprun, O., Dereza, O., Shchur, T., Śrutek, M. (2021a). Representation of a monotone curve by a contour with regular change in curvature. Entropy, 23(7), 923.10.3390/e23070923830598034356464

Havrylenko Y., Kholodniak Y., Halko S., Vershkov O., Bondarenko L., Suprun O., Miroshnyk, O., Shchur T., Śrutek M., Gackowska M. (2021b). Interpolation with specified error of a point series belonging to a monotone curve. Entropy, 23(5), 493.10.3390/e23050493814299833919030

Khasawneh A., Qawaqzeh, M., Kuchanskyy, V., Rubanenko, O., Miroshnyk, O., Shchur, T., Drechny, M., (2021). Optimal determination method of the transposition steps of an extra high voltage power transmission line. Energies, 14(20), 6791.10.3390/en14206791

Mannheim, V., Simenfalvi, Z. (2020). Total Life Cycle of Polypropylene Products: Reducing Environmental Impacts in the Manufacturing Phase. Polymers, 12, 1901.10.3390/polym12091901756310432846916

Maxit, L., Karimi, M., Guasch, O. (2021). Spatial Coherence of Pipe Vibrations Induced by an Internal Turbulent Flow. Journal of Sound and Vibration, 493, 115841.10.1016/j.jsv.2020.115841

Ivanov, M.I., Rutkevych, V.S., Kolisnyk, O.M., Lisovoy, I.O. (2019). Research on the block-portion separator parameters influence on the adjustment range of operating elements speed. INMATEH - Agricultural Engineering, 57, 37-44.10.35633/INMATEH_57_04

Panchenko, A., Voloshina, A., Boltyansky, O., Milaeva, I., Grechka, I., Khovanskyy, S., Svynarenko, M., Glibko, O., Maksimova, M., Paranyak, N. (2018a). Designing the Flow-through Parts of Distribution Systems for the PRG Series Planetary Hydraulic Motors. Eastern-European Journal of Enterprise Technologies, 3, 67-77.10.15587/1729-4061.2018.132504

Chang, Y.J., Kim, J.H., Jeon, C.H., Kim, C., Jung, S.Y. (2006). Development of an Integrated System for the Automated Design of a Gerotor Oil Pump. Journal of Mechanical Design, 129, 1099-1105.10.1115/1.2757629

Choi, T.H., Kim, M.S., Lee, G.S., Jung, S.Y., Bae, J.H., Kim, C. (2012). Design of Rotor for Internal Gear Pump Using Cycloid and Circular-Arc Curves. Journal of Mechanical Design, 134, 011005.10.1115/1.4004423

Stryczek, J., Bednarczyk, S., Biernacki, K. (2014a). Gerotor Pump with POM Gears: Design, Production Technology. Archives of Civil and Mechanical Engineering, 14, 391-397.10.1016/j.acme.2013.12.008

Gamez-Montero, P.J., Garcia-Vilchez, M., Raush, G., Freire, J., Codina, E. (2012). Teeth Clearance and Relief Grooves Effects in a Trochoidal-Gear Pump Using New Modules of GeroLAB. Journal of Mechanical Design, 134, 054502.10.1115/1.4006440

Furustig, J., Almqvist, A., Bates, C.A., Ennemark, P., Larsson, R.A. (2015). Two Scale Mixed Lubrication Wearing-in Model, Applied to Hydraulic Motors. Tribology International, 90, 248-256.10.1016/j.triboint.2015.04.033

Stryczek, J., Bednarczyk, S., Biernacki, K. (2014b). Strength Analysis of the Polyoxymethylene Cycloidal Gears of the Gerotor Pump. Archives of Civil and mechanical Engineering, 14(4), 647-660.10.1016/j.acme.2013.12.005

Gunko, I.V. (1998). Matematychna Model Hrupovoho Hidropryvodu z Dvoma Hidromotoramy. Visnyk Vinnytskoho Politekh Instytutu, 2, 97-100.

Panchenko, A., Voloshina, A., Milaeva, I., Panchenko, I., Titova, O. (2018). The Influence of the Form Error after Rotor Manufacturing on the Output Characteristics of an Orbital Hydraulic Motor. International Journal of Engineering & Technology, 7, 1-5.10.14419/ijet.v7i4.3.19542

Zhao, X., Ning, D., Göteman, M., Kang, H. (2017). Effect of the PTO Damping Force on the Wave Pressures on a 2-D Wave Energy Converter. Journal of Hydrodynamics, Ser. B, 29, 863-870.10.1016/S1001-6058(16)60798-9

Zhang, L., Tijsseling, S.A., Vardy, E.A. (1999). FSI Analysis of Liquid-Filled Pipes. Journal of Sound and Vibration, 224(1), 69-99.10.1006/jsvi.1999.2158

Zhang, Zh. (2019). Wave Tracking Method of Hydraulic Transients in Pipe Systems with Pump Shut-off under Simultaneous Closing of Spherical Valves. Renewable Energy, 132, 157-166.10.1016/j.renene.2018.07.119

Gao, P., Yu, T., Zhang, Y., Wang, J., Zhai, J. (2021). Vibration Analysis and Control Technologies of Hydraulic Pipeline System in Aircraft: A Review. Chinese Journal of Aeronautics, 34(4), 83-114.10.1016/j.cja.2020.07.007

Zecchin, A.C., Gong, J., Simpson, A.R., Lambert, M.F. (2014). Condition Assessment in Hydraulically Noisy Pipeline Systems Using a Pressure Wave Splitting Method. Procedia Engineering, 89, 1336-1342.10.1016/j.proeng.2014.11.452

Gao, P., Yu, T., Zhang, Y., Wang, J., Zhai, J. (2021). Vibration Analysis and Control Technologies of Hydraulic Pipeline System in Aircraft: A Review. Chinese Journal of Aeronautics, 34, 83-114.10.1016/j.cja.2020.07.007

Most read articles by the same author(s)