Characteristics of changes occurring on the surface of thin-walled elements as a result of spot welding

##plugins.themes.bootstrap3.article.main##

Marzena Małgorzata Lachowicz
Maciej Bogumił Lachowicz

Abstrakt

The paper presents the results of metallographic examination of a sleeve from a refrigeration system used in the food industry. On its outer surface, local surface changes were observed. Metallographic and microscopic SEM examinations were performed.It was found that the direct cause of their formation was the use ofspot welding to regenerate its inner surface. It led to plastic deformation of the external surface as well as the formation of a layer of oxides with wustite properties.

Pobrania

Brak dostępnych danych do wyświetlenia.

##plugins.themes.bootstrap3.article.details##

Jak cytować
[1]
M. M. Lachowicz i M. B. Lachowicz, „Characteristics of changes occurring on the surface of thin-walled elements as a result of spot welding”, Weld. Tech. Rev., t. 91, nr 8, s. 29–36, paź. 2019.
Dział
Original Articles

Bibliografia

Winczek J., The Analysis of thermomechanical states in multipass arc weld surfaced steel elements, Archives of Metallurgy and Materials, 2018, Vol. 63(4), 1615-1628.

Winczek J., Gucwa M., Makles K., Analysis of thermal cycles and phase transformations during multi-pass ARC weld surfacing of steel casts taking into account heat of the weld, Journal of Applied Mathematics and Computational Mechanics, 2018, Vol. 17(1), 89-100.

Białucki P., Derlukiewicz W., Pad welding in the regeneration of die for aluminum pressure casting, Welding Technology Review, 2011, Vol. 83(10), 44-49.

Smoleńska H., Kończewicz W., Łabanowski J., Marine engine valves plasma hard-facing regeneration, Welding Technology Review, 2011, Vol. 83(9), 73-78.

Kolasa A., Sarnowski T., Cegielski P., Regeneration of worn out machine parts surfaces by automatic welding, Welding Technology Review, 2015, Vol. 87(1), 50-57.

Wojciechowski W., Kowalski J.S., Welding techniques in foundry. Surfacing, Archives of Foundy Engineering, 2013, Vol. 13(1), 87-90.

Idziak E., Szyszka R., Siennicki A., Turek B., Robotic welding of excavator buckets, Górnictwo i Geoinżynieria, 2007, Vol. 31(2), 253-265.

Nowakowski Ł., Wijas M., Finishing surface after regeneration with laser cladding, Procedia Engineering, 2017,

Vol. 192, 1012-1015.

Winczek J., New approach to modeling of temperature field in surfaced steel elements, International Journal of Heat and Mass Transfer 2011, Vol. 54(2122), 4702-4709.

Winczek J., Skrzypczak T., Thermomechanical states in arc weld surfaced steel elements, Archives of Metallurgy and Materials, 2016, Vol. 61(3),1623-1634.

Kulawik A., Modeling of thermomechanical phenomena of welding process of steel pipe, Archives of Metallurgy and Materials, 2012, Vol. 57(4), 1229-1238.

Fedrizzi L., Rossi S., Bellei F., Deflorian F., Wearcorrosion mechanism of hard chromium coatings, Wear, 2002, Vol. 253(1112), 1173-1181.

Ranjbar K., Sababi M., Failure assessment of hard chrome coated rotors in the downhole drilling motors, Engineering Failure Analysis, 2012, Vol. 20, 147-155.

Lachowicz M.M., Lachowicz M.B., Analysis of corrosion causes of the chromium-nickel coating applied for protecting the actuator of piston rods, Journal of Machine Construction and Maintenance, 2017, Vol. 104(1), 103-107.

Zhang H., Liu L., Bai J., Liu X., Corrosion behavior and microstructure of electrodeposited nano-layered NiCr coatings, Thin Solid Films, 2015, Vol. 595, Part A, 36-40.

Sheibani Aghdam A., Allahkaram S.R, Mahdavi S., Corrosion and tribological behavior of NiCr alloy coatings electrodeposited on low carbon steel in Cr (III)Ni (II) bath, Surface and Coatings Technology, 2015, Vol. 281, 144-149.