The Influence of Burnishing Process on the Hardness and Surface Roughness of Aluminium Welded Joints

Authors

DOI:

https://doi.org/10.26408/128.02

Keywords:

aluminum alloys, aluminum welding, treatment by burnishing, surface roughness, strengthening of the surface layer

Abstract

The article presents the effect of burnishing on the surface roughness and hardness of the EN AW-6060 aluminum alloy after welding. The samples prepared were welded using the 141-TIG method, and then the surfaces to be burnished were prepared in the turning process to remove the weld face and run-out of the workpiece. After the turning process, the process of surface plastic treatment by roller burnishing began. Then, measurements of surface hardness and selected surface roughness parameters were performed. The analysis of the test results showed an increase in the hardness of the surface layer and an improvement in the surface roughness parameters Ra and Rt.

References

Remediation of Oil-Contaminated Water Using Floating Treatment Wetlands, Clean Water, vol. 2(3).

Du, Y., Wu, T., Gong, R., 2017, Properties of Water-Contaminated Lubricating Oil: Variation with Temperature and Small Water Content, Tribology – Materials, Surfaces & Interfaces, vol. 11, pp. 1–6.

Dealtry, S., Ghizelinib, A.M., Mendonça-Hagler, L.C.S., Chaloubd, R.M., Reinert, F., de Campos, T.M.P., Gomes, N.C.M., Smallag, K., 2018, Petroleum Contamination and Bio Augmentation in Bacterial Rhizosphere Communities from Avicenniaschaueriana, Environmental Microbiology, vol. 49, no. 4, pp. 757–769.

Enzien, M., 2011, New Biocide Formulations for Oil and Gas Injection Waters with Improved Environmental Footprint, Offshore Technology Conference, OTC 21794.

Gaylarde, C.C., Bento, F., Kelley, J., 1999, Microbial Contamination of Stored Hydrocarbon Fuels and Its Control, Revista de Microbiologia, vol. 30, no. 1, pp. 1–10.

Higa, T., 2003, A Revolution in Protecting our Planet, Foundation for Development of Warsaw University of Life Sciences, Warsaw.

Idzior, M., Wichtowska, K., 2016, Study of the Impact of Vehicle Mileage on Changes in the Properties of Engine Oils, Buses, no. 6, pp. 900–904.

Kajdas, C., 2014, Used Oil Disposal and Collection, Encyclopedia of Lubricants and Lubrication, Springer, Berlin, pp. 2204–2213.

Katiyar, V., Husain, S., 2010, Environmental Impacts of Used oil, Material Science Research India, vol. 7(1), pp. 245–248.

Kolasa-Więcek, A., 2010, Will Effective Microorganisms Revolutionize the World? Advances in Food Processing Technique, no. 1, pp. 66–69.

Nieuwenhuis, P., Cipcigan, L., Berkem Sonder, H., 2020, The Electric Vehicle Revolution. Future Energy, Elsevier, pp. 227–243.

Niewczas, A., Wrona, J., Wrona, R., 2010, Contamination of the Lubricating Oil and Their Influence on the Durability of the Internal Combustion Engine, Buses: technology, operation, transport systems, vol. 11(6), CD release.

Sander, J., 2009, Water Contamination: Management of Water During the Lubricant Life Cycle, Fort Worth: Lubrication Engineers Corp.

Schicht, M.L., 2008, Understand Effective Microorganisms, EMECHO, no. 8(4).

Turkiewicz, A., Brzeszcz, J., Kapusta, P., 2013, The Application of Biocides in the Oil and Gas Industry, NAFTA-GAZ, no. 2, pp. 103–111.

Wolak, A., Zając, G., 2017, The Kinetics of Changes in Kinematic Viscosity of Engine Oils under Similar Operating Conditions, Eksploatacja i Niezawodność – Maintenance and Reliability, vol. 19(2), pp. 260–267.

Zhang, J., Luo, H., Yin, X., Shi, Y., Zhang, Y., Tan, L., 2021, Surface Coating on Aluminium Substrate with Polymeric Guanidine Derivative to Protect Jet Fuel Tanks from Microbial Contamination, Surface and Coatings Technology, vol. 422.

Internet sources

Anton Paar, 2022, ASTM D341/Viscosity-Temperature Extrapolation, https://wiki.anton-paar.com/pl-pl/ekstrapolacja-lepkosci-i-temperatury-astm-d341/?tx_apcalculators_calcu¬lator%5Bac¬tion¬%-5D=calculate&tx_apcalculators_calculator%5Bcontroller%5D=Calculator&cHash=452b9a8c0738cbf1dcde107d44fda4f3 (25.10.2022).

Ecol, 2022, Oil-Water-Contamination-and-Methods-of-Its-Removal, https://www.ecol.¬com.pl/pl/¬za¬nie-czyszczenie-oleju-woda-i-metody-jej-usuwania-artykul (25.10.2022).

Ecoshop, 2022, Greenland – EM Melasa, https://www.ecoshop.com.pl/mikroorganizmy/3556-green-land-em-melasa-1l-5907738935220.html (25.10.2022).

Ekma, 2022, Stationary Density Meter, http://ekma.pl/produkty/gestosciomierz-stacjonarny-da640/ (25.10.2022).

Falaem, 2022, Ceramics Tubes EM, https://falaem.pl/rurki-ceramiczne-uzdatnianie-wody (25.10.2022),

Flottweg, 2022, Dynamic Viscosity, https://www.flottweg.com/pl/wiki/technologia-oddzielania/lep¬kosc-dynamiczna/ (25.10.2022).

Intrucks, 2019, Characteristics of Engine Oils, https://intrucks.com/pl/equipment/harakteristiki-mo¬tor-nyh-masel-na-chto-vliyaet-plotnost-masla-motornogo/ (25.10.2022).

Kyoto Electronics Manufacturing Co, LTD, 2022, Density/Specific Gravity Meter, http://www.deltalabo.fr/fr/catalogue/DA640.pdf (25.10.2022).

Scania, 2019, Scania's Commitment to Battery Electric Vehicles, https://www.scania.com/pl/pl/¬home/-about¬-scania/newsroom/scanias-commitment-to-battery-electric-vehicles.html. (25.10.2022).

Substech, 2022, Engine oil SAE 5W-30, https://www.substech.com/doku¬wiki/doku.php?id=en¬gine_oil-_sae_5w-30 (25.10.2022).

MEF GMU Laboratory, 2016, Kinematic Viscosity Measurement, http://wm.umg.edu.pl/sites/de-fault/files/files/laboratoria/KPT/Lab%20Reologii/pomiar%20lepko%C5%9Bci%20kinematycz-nej%20wibr%20i%20rot.pdf (25.10.2022).

Downloads

Published

2023-12-29

How to Cite

Labuda, W., & Wieczorska, A. (2023). The Influence of Burnishing Process on the Hardness and Surface Roughness of Aluminium Welded Joints. Scientific Journal of Gdynia Maritime University, (128), 21–32. https://doi.org/10.26408/128.02

Issue

Section

Articles

Categories