face milling, surface roughness, distribution of roughness, direction-dependent characterization of topography


When surfaces with anisotropic texture are moved in different directions related to their assembled counterpart during operation, the friction conditions change, as they are determined by the lay of the topographies. In the article, contributing to the exploration of this characteristic, we analyze the inhomogeneity of the topography on a face milled plane surface with a symmetrical setting in sections at an angle of 30° or 60° to the feed direction. Roughness profiles are recorded at 13 points located equidistantly from each other in each measurement plane, and the degree and distribution of the roughness deviations are determined on the surface.

Author Biographies

Nagy Antal, University of Miskolc, Hungary

Еngineering teacher, PhD student, Institute of Production Sciences, University of Miskolc, Hungary

Janos Kundrak, University of Miskolc, Hungary

Prof. Dr. habil Dr.h.c. Janos Kundrak, DSc, University of Miskolc, Faculty of Mechanical Engineering and Informatics Institute of Manufacturing Science, Hungary


Liu, G., Huang, C., Zhu, H., Liu, Z., Liu, Y., Li, C. The modified surface properties and fatigue life of Incoloy A286 face-milled at different cutting parameters. Materials Science and Engineering: A. 2017. vol. 704. pp. 1 – 9.

Molnár, V. Wear Resistance of Hard Turned Surfaces. Cutting & Tools in Technological System. 2022. vol. 96. pp. 65 – 72.

Molnár, V. Tribological Properties and 3D Topographic Parameters of Hard Turned and Ground Surfaces. Materials. 2022. vol. 15. № 7. ArtNo. 2505.

Grzesik, W. Prediction of the functional performance of machined components based on surface topography: State of the art. Journal of Materials Engineering and Performance. 2016. vol. 25. pp. 4460 – 4468.

Mitsyk, A., Fedorovich, V., Grabchenko, A. Main technological factors determining the efficiency and quality of the vibration process. Cutting & Tools in Technological System. 2022. vol. 96. pp. 131 – 137.

Sharma, N., Gupta, K. Influence of coated and uncoated carbide tools on tool wear and surface quality during dry machining of stainless steel 304. Materials Research Express. 2019. vol. 6. № 8. ArtNo. 086585.

Parhad, P., Likhite, A., Bhatt, J., Peshwe, D. The effect of cutting speed and depth of cut on surface roughness during machining of austempered ductile iron. Transactions of the Indian Institute of Metals. 2015. vol. 68. № 1. pp. 99 – 108.

Sztankovics, I. Analysis of Rotational Turning in Precision Finish Machining (in Hungarian). Miskolc, Hungary: István Sályi Doctoral School of Mechanical Engineering Sciences, 2022. 96 p.

Balaji, M., Venkata Rao, K., Mohan Rao, N., Murthy, B. Optimization of drilling parameters for drilling of TI-6Al-4V based on surface roughness, flank wear and drill vibration. Measurement. 2018. vol. 114. pp. 332 – 339.

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

Molnár, V., Szabó, G. Designation of minimum measurement area for the evaluation of 3D surface texture. Journal of Manufacturing Processes. 2022. vol. 83. pp.40 – 48.

Molnár, V., Sztankovics, I. Analysis of Roughness Parameters Determining Tribological Properties in Hard Turned Surfaces. Hungarian Journal Of Industry And Chemistry. 2021. vol. 49. № 2. pp.77 – 84.

Molnár, V. Asymmetric Height Distribution of Surfaces Machined by Hard Turning and Grinding. Symmetry. 2022. vol. 14. ArtNo. 1591.

Ferencsik, V., Varga, G. The Effect of Burnishing Process on Skewness and Kurtosis of the Scale Limited Surface. Cutting & Tools in Technological System. 2022. vol. 97. pp. 83 – 90.

Felhö, C. Investigation of surface roughness in machining by single and multi-point tools. Aachen: Shaker Verlag, 2014. 188 p.

Smith, G.T. Cutting Tool Technology: Industrial Handbook. London: Springer-Verlag, 2008. 559 p.

Arizmendi, M., Jiménez, A. Modelling and analysis of surface topography generated in face milling operations. International Journal of Mechanical Sciences. 2019. vol. 163. ArtNo. 105061.

Chuchala, D., Dobrzynski, M., Pimenov, D., Orlowski, K., Krolczyk, G., Giasin, K. Surface roughness evaluation in thin EN AW-6086-T6 alloy plates after face milling process with different strategies. Materials. 2021. vol. 14. № 11. ArtNo. 3036.

Varga, G., Kundrák, J. Effects of Technological Parameters on Surface Characteristics in Face Milling. Solid State Phenomena. 2017. vol. 261. pp. 285 – 292.

Kundrak, J., Felho, C. Topography of the machined surface in high performance face milling. Procedia CIRP. 2018. vol. 77. pp. 340 – 343.

Nagy, A., Kundrak, J. Analysis of the change in roughness on a face-milled surface measured every 45° direction to the feed. Cutting & Tools in Technological System. 2021. vol. 95. pp. 29 – 36.

Nagy, A., Kundrak, J. Analysis of inhomogeneity of surfaces milled with symmetrical, down-milling, and up-milling settings. Development in Machining Technology: Scientific – Research Reports vol.10. Cracow, Poland: Cracow University of Technology. 2022. pp. 51 – 62.

Nagy, A., Kundrak, J. Changes in the values of roughness parameters on face-milled steel surface. Cutting & Tools in Technological System. 2020. vol. 92. pp. 85 – 95.

Kundrak, J., Nagy, A. Investigation of Surface Roughness Characteristics of Face Milling. Cutting & Tools in Technological System. 2019. vol. 90. pp. 63 – 72.






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