ANALYZING THE EFFECT OF THE TOOL PASS NUMBER AND THE DIRECTION OF SLIDING BURNISHING ON SURFACE ROUGHNESS

Authors

DOI:

https://doi.org/10.20998/2078-7405.2022.97.06

Keywords:

turning, burnishing, surface roughness, environmentally friendly machining

Abstract

Nowadays, the concern of environmental protection is becoming more and more important in production as well. They often contribute to this by reducing or eliminating the amount of coolants and lubricants, or by using alternative machining methods. One of them is burnishing, which makes a positive effect on surface integrity, while reduces the environmental load. In this paper we examined the change in surface roughness achieved by burnishing after turning on a corrosion-resistant steel workpiece, where the number of burnishing passes and burnishing direction were changed. The results showed increased smoothness, bearing capacity and dimensional stability by increasing the number of passes from 1 to 2, however, the 3 times repetition did not show any additional favorable improvement on the surfaces. In case of the forward-backward-forward burnishing directions, further chipping occurred, in other cases the effect of the directions was negligible on the amplitude roughness parameters, but considerable on the parameters characterizing the roughness peak. The greatest improvement was achieved with the backward-forward settings.

Author Biographies

Nagy Antal, University of Miskolc, Hungary

Engineering lecturer, postgraduate student, Institute of Production Science, Miskolc University, Department of Production Technology, Miskolc, Hungary

Varga Gyula, University of Miskolc, Hungary

Associate professor, Institute of Manufacturing Science, University Miskolc, Hungary

References

Kundrák, J., Mamalis, A.G., Gyáni, K., Markopoulos, A.: Environmentally friendly precision machining, Materials and manufacturing processes vol.21(1) (2006) pp.29-37.

Varga, Gy., Szigeti, F., Kovács, A.: Analysis of Surface Roughness of Holes Machined by Environmentally Friendly Way (in Hungarian). Műszaki Tudomány az Észak-kelet Magyarországi Régióban 2012. MTA Debreceni Akadémiai Bizottság, Debrecen, Hungary, 2012, pp. 433-442.

Varga, G., Sovilj, B., Jakubowicz, M., Babič, M.: Experimental Examination of Surface Roughness in Low-Environmental-Load Machining of External Cylindrical Workpieces. International Scientific-Technical Conference MANUFACTURING, Springer, Cham, 2019, pp. 307-321.

Antal, N., Gyula, V.: Effect of abandonment of cooling and lubrication on surface roughness and cylindricity in turning of steel, Multidiszciplináris Tudományok vol.11(4) (2021) pp.395-407.

Kundrák, J., Varga, G., Deszpoth, I.: Analysis of Extent of Environment Load in Alternative Manufacturing Procedures. WSEAS Transactions on Environment and Development vol.14 (2018) pp.313-320.

Sztankovics, I., Kundrak, J.: Theoretical Value and Experimental Study of Arithmetic Mean Deviation in Rotational Turning. Rezanie I Instrumenty V Tekhnologicheskih Sistemah vol.96 (2022) pp.73-81.

Ferencsik, V., Varga, G.: Examination of surface state-change on diamond burnished aluminium components. Proceedings of the International Symposium for Production Research 2019, Springer, Cham, 2020, pp.535-544. 8. Stephenson, D.A., Agapiou, J.S.: Metal cutting theory and practice. CRC press, 2018.

Maheshwari, A.S., Gawande, R.R.: The role of burnishing process in manufacturing industry - A state-of-the-art survey, International Journal of Engineering Research and Development vol.13 (2017) pp.50-60.

Grzesik, W., Zak, K.: Modification of surface finish produced by hard turning using superfinishing and burnishing operations, Journal of Materials Processing Technology vol.212(1) (2012) pp.315-322.

Varga, G., Ferencsik, V.: Analysis of surface topography of diamond burnished aluminium alloy components. Vehicle and Automotive Engineering, Springer, Cham, 2017, pp.143-154.

Ferencsik, V., Varga, G.: The Influence of Diamond Burnishing Process Parameters on Surface Roughness of Low-Alloyed Aluminium Workpieces, Machines vol.10(7) (2022) ArtNo.:564.

Rami, A., Gharbi, F., Sghaier, S., Hamdi, H.: Some insights on combined turning-burnishing (CoTuB) process on workpiece surface integrity, International Journal of Precision Engineering and Manufacturing vol.19(1) (2018) pp.67-78.

Hassan, A.M., Al-Dhifi, S.Z.: Improvement in the Wear Resistance of Brass Components by the Ball Burnishing Process, Journal of Materials Processing Technology vol. 96(1) (1999) pp.73-80.

Hirose, M., Hayasaka, T., Shamoto, E.: Unique regenerative chatter in wiper-turning operation with burnishing process, Part 1: Prediction and analytical investigation of generation mechanism, critical stability, and characteristics, Precision Engineering vol.71 (2021) pp.304-312.

Alshareef, A.J., Marinescu, I.D., Basudan, I.M., Alqahtani, B.M., Tharwan, M.Y.: Ball-burnishing factors affecting residual stress of AISI 8620 steel, The International Journal of Advanced Manufacturing Technology vol.107(3) (2020) pp.1387-1397.

Shi, Y.L., Shen, X.H., Xu, G.F., Xu, C.H., Wang, B.L.,

Su, G.S.: Surface integrity enhancement of austenitic stainless steel treated by ultrasonic burnishing with two burnishing tips, Archives of Civil and Mechanical Engineering vol.20(3) (2020) pp.1-17.

Molnár, V., Sztankovics I.: Analysis of Roughness Parameters Determining Tribological Properties in Hard Turned Surfaces. Hungarian Journal Of Industry And Chemistry vol.49(2) (2021) pp.77-84.

Kovács, Z.F., Viharos, Z.J., Kodácsy, J.: Improvements of surface tribological properties by magnetic assisted ball burnishing, Surface and Coatings Technology vol.437 (2022) ArtNo.:128317.

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Published

2022-11-04

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Section

Mechanical processing of materials, the theory of cutting materials, mathematical and computer simulation of machining p