The Calculation of the Thickness of Thermal Spray Coating for Protection of Low Alloyed Steel when Heated under Rolling


Article Preview

In scientific work has been developed a thickness calculation procedure of an aluminum thermal spray coating, sprayed on the low-alloyed steel surfaces in order to provide its effective protection at hight temperatures. The method is based on the calculations of the diffusion layer thickness with consideration of temperature change on the blank`s surface and on the dependence of the parameter (directly proportional to the diffusional coefficient) on the temperature.



Edited by:

Dr. Denis Solovev




A.A. Gerasimova et al., "The Calculation of the Thickness of Thermal Spray Coating for Protection of Low Alloyed Steel when Heated under Rolling", Materials Science Forum, Vol. 945, pp. 729-734, 2019

Online since:

February 2019




* - Corresponding Author

[1] S.S. Solntsev, Protective coating of metals when heated. Librokom. (2009).

[2] L. P. Kondratov, N. N. Bozhko, Technology of materials and coatings. Moscow. MGUP. (2008).

[3] Ye. N. Grishina, S.S. Buynovich, V.G. Mangush, Manufacture of heavy-gauge steel, Collection of research papers. Moscow. Metallurgiya. 4 (1979) 74–76.

[4] A.V. Golovanov, Structure and phase composition of the surface layer on steel after aluminizing. Moscow. Metallography and heat treatment of metals. 6 (2008) 42-45.

[5] A.G. Radyuk, The effect of aluminizing of the slabs on the structure and phase composition of surface layer of hot rolled sheets. Production of rolled products. 8 (2007) 15-19.

[6] T. L. Lukanina, I. S. Mikhaylova, M.A. Radin, Chemical resistance of materials and corrosion protection. SPbGTURP. Saint Petersburg. (2014).

[7] A. A. Gerasimova, A. G. Radyuk, L. M. Glukhov, Applying Coatings to the Narrow Walls of Continuous-Caster Molds to Improve the Quality of the Surface of Slabs. Metallurgist. 58 (5-6) (2014) 397-400.


[8] M. L. Labanov, N. I. Kardonina, N. G. Rossina, A. S. Yurovskih, Protective coating. Ekaterinburg. Publishing house Ural. (2014).

[9] S. M. Gorbatyuk, A. A. Gerasimova, N. N. Belkina, Applying Thermal Coatings to Narrow Walls of the Continuous-Casting Molds. Materials Science Forum. 870 (2016) 564-567.


[10] S.M. Gorbatyuk, S.M Pavlov, A.N. Shapoval, S.M. Gorbatyuk, Experience in application of screw rolling mill for deforming the billets of refractory metals. Metallurg. 5 (1998) 32-35.

[11] A.Yu. Zarapin, A.I. Shur, N.A. Chichenev, Improvement of the unit for rolling aluminum strip clad with corrosion-resistant steel. Steel in Translation. 29 (1999) 69-71.

[12] S. M. Gorbatyuk, V.M Pavlov, A.N. Shapoval, M.S Gorbatyuk, Experimental use of rotary rolling mills to deform compacts of refractory metals. Metallurgist. 42 (1998)178-183.


[13] V. R. Ryabov, Litrovaya steel. Moscow. Metallurgiya. (1973).

[14] A.A. Gerasimova, A.G. Radyuk, A.E. Titlyanov, Creation of a diffusional aluminum layer on the narrow walls of continuous-casting molds. Steel in Translation. 45 (2015) 185-187. (DOI): 10.3103/S0967091215030079.


[15] Information on

[16] S. S. Kutateladze, V. M. Borishanskiy, Handbook of heat transfer. Moscow. (2012).

[17] N.L. Kirillova, A.G. Radyuk, A.E. Titlyanov, Reducing heat loss through the surface of blast-furnace tuyeres. Metallurgist. 57 (2014) 878-882.


[18] F.D. Kazyyev F.D., A. E. Titlyanov., M. V. Fetisova, Protective aluminum cover when the hot rolling. Moscow. MISIS. 140 (1992) 136-140.

[19] P.T. Gorodnov, The increase in heat resistance of steel products method of aluminizing. Moscow. Mashgiz. (1962).