Experimental installation for wear tests of materials and coatings

Authors

  • M. Stechyshyn Khmelnitskyi National University
  • O. Dykha Khmelnitskyi National University
  • V. Oleksandrenko Khmelnitskyi National University
  • M. Tsepenyuk Ternopil Ivan Pul'uj National Technical University
  • V. Kurskoi Khmelnitskyi National University
  • Ye. Oleksandrenko Khmelnitskyi National University

DOI:

https://doi.org/10.31891/2079-1372-2024-111-1-32-37

Keywords:

friction, installation, sample, wear, contact pressure, lubrication

Abstract

On the basis of the analysis of existing tribological testing methodologies, which includes the selection of controlled wear parameters, the influence of the type of friction, contact geometry, surface roughness, the scheme of tribological research, the choice of a machine 2168UМТ for friction testing of materials is substantiated. The friction machine allows you to install three samples at the same time, change the pressure in the contact zone in a wide range, control the moment of friction, the rotation frequency of the counterbody, the number of revolutions (friction path), change the rotation frequency, respectively, the sliding speed, automatically limit the distance traveled and other functions. The method of wear is adopted according to the finger-ring scheme, linear wear is monitored using an indicator rack with a value of divisions of the measuring device of  0.001 mm. To fix the samples on the machine caliper, holders were designed and manufactured, which ensure the self-fixation of the sample on the counterbody - a spherical joint made of the rolling body of the bearing. due to the fact that the samples were pressed against the counterbody with a force corresponding to the nominal contact pressure, they were self-aligned. After the sample was self-assembled, the whole structure was fixed by tightening the nuts. The counterbody is made of a rolling bearing ring, the material is steel SHX15, the hardness of the base is HRC 61. Three devices are mounted on the caliper for permanent lubrication of the running track immediately before the approaching sample. Thus, at certain values of pressure and speed, the mode of marginal friction can be reached, which was marked by a low coefficient of friction.

References

Stechyshyna N.M. Corrosion-mechanical wear resistance of food production equipment parts: monograph / N.M. Stechyshina, M.S. Stechyshyn, N.S. Mashovets – Khmnelnytskyi: KhNU, 2022. 181p.

M. Stechyshyn, M. Macko, O. Dykha, S. Matiukh, J. Musial. Tribotechnologies of strengthening and wear modeling of structural materials. Bydgoszcz: Foundation of Mechatronics Development, 2023. 196p.

Kornienko A.O. Formation of tribotechnical properties of nickel-based composite electrolytic coatings by creating gradient structures: autoref. thesis Ph.D. technical of science K.: NAU, 2007. 21 p.

Guicciardi, S., Melandri, C., Lucchini, F., & De Portu, G. (2002). On data dispersion in pin-on-disk wear tests. Wear, 252(11-12), 1001-1006.

Nair, RP, Griffin, D., & Randall, NX (2009). The use of the pin-on-disk tribology test method to study three unique industrial applications. Wear, 267(5-8), 823-827.

Kaleli, H. (2016). New Universal Tribometer as Pin or Ball-on-Disc and Reciprocating Pin-on-Plate Types. Tribology in Industry, 38(2).

Syahrullail, S., & Nuraliza, N. (2016). Effects of different load with varying lubricant on the friction coefficient and wear rate using pin on disk tribometer. Applied Mechanics and Materials, 819, 495-498.

Hoić, M., Hrgetić, M., & Deur, J. (2016). Design of a pin-on-disc-type CNC tribometer including an automotive dry clutch application. Mechatronics, 40, 220-232.

Hidalgo, BDA, Erazo-Chamorro, VC, Zurita, DBP, Cedeño, EAL, Jimenez, GAM, Arciniega-Rocha, RP, ... & Pijal-Rojas, JA (2022). Design of Pin on Disk Tribometer Under International Standards. In Applications of Computational Methods in Manufacturing and Product Design: Select Proceedings of IPDIMS 2020 (pp. 49-62). Singapore: Springer Nature Singapore.

Singh, H., Singh, AK, Singla, YK, & Chattopadhyay, K. (2020). Design & development of a low-cost tribometer for nanoparticulate lubricants. Materials Today: Proceedings, 28, 1487-1491.

Wu, J., Liu, T., Yu, N., Cao, J., Wang, K., & Sørby, K. (2021). A pin-on-disk tribometer for friction and lubricating performance in mm-scale. Tribology Letters, 69, 1-6.

Sinha, SK, Thia, SL, & Lim, LC (2007). A new tribometer for friction drives. Wear, 262(1-2), 55-63.

Stechyshyn M.S. Durability of food industry equipment parts under corrosive-mechanical wear. Diss. Ph.D. Khmelnytskyi: TUP. 1998. 329p.

MS Stechishyn, M.Ye. Skyba, AV Martynyuk, D.V Zdorenko. Wear resistance of structural steels nitrided in a cyclically switched discharge with dry friction. Problems of Tribology, V. 28, No. 1/107-2023, 20-24.

MS Stechyshyn, VV Lyukhovets, NM Stechyshyn, MI Tsepenyuk.Wear resistance of structural steels nitroded in cyclic-commuted discharge at limit modes of friction. //Problems of Tribology. – Khmelnytskyi: KHNU, 2022. – V. 27. - No. 3/105. - P.27-33.

Downloads

Published

2024-03-19

How to Cite

Stechyshyn, M., Dykha, O., Oleksandrenko, V., Tsepenyuk, M., Kurskoi, V., & Oleksandrenko, Y. (2024). Experimental installation for wear tests of materials and coatings. Problems of Tribology, 29(1/111), 32–37. https://doi.org/10.31891/2079-1372-2024-111-1-32-37

Issue

Section

Articles

Most read articles by the same author(s)

1 2 > >>