Influence of nanomodifying additives and strengthening phase on the structure and properties of laser coating of porous titanium
Žurnal Sibirskogo federalʹnogo universiteta. Matematika i fizika, Tome 17 (2024) no. 1, pp. 97-105.

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The results of an experimental study of the influence of nanomodifying additives on the structure and mechanical properties of coatings during laser surfacing of a composite powder with a strengthening phase on porous titanium are presented. Titanium alloy of the Ti–V–Al system with a strengthening phase of titanium carbide was used as a surfacing material, and nano-sized refractory titanium nitride powders were used as a modifying additive. An analysis of the morphological and structural characteristics of a deposited single track was carried out, and the influence of modifying additives on the intensity of dissolution of the strengthening phase and the mechanical characteristics of the deposited layer was established.
Keywords: nanopowders, composite materials, laser surfacing, strengthening phase, microhardness
Mots-clés : nanomodification.
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Ksenia A. Skorokhod; Anatoly N. Cherepanov; Aleksander G. Malikov; Danila A. Krasnov. Influence of nanomodifying additives and strengthening phase on the structure and properties of laser coating of porous titanium. Žurnal Sibirskogo federalʹnogo universiteta. Matematika i fizika, Tome 17 (2024) no. 1, pp. 97-105. http://geodesic.mathdoc.fr/item/JSFU_2024_17_1_a9/

[1] G.G.Krushenko, O.A.Platonov, V.P.Nazarov, “Prevention of porosity formation in power unit castings from aluminum alloys”, IOP Conference Series. Materials Science and Engineering, 467 (2019) | DOI

[2] D.O.Butarovich, A.A.Smirnov, D.M.Ryabov, “Foamed aluminum as an energy-absorbing material and its technical properties”, Mechanical Engineering, 7:5 (2011), 53058 (in Russian)

[3] I.O.Leushin, A.N.Grachev, V.N.Nazarov, P.A.Gorokhov, “Foamed aluminum is a promising material for the production of cast products for critical purposes”, Theory and technology of metallurgical production, 35:4 (2020), 35–38 (in Russian)

[4] A.Fuganti, L.Lorenzi, A.G.Hansen, M.Langseth, “Aluminum foam for automative applications”, Advanced Engineering Materials, 4:2 (2000), 200–204 | 3.0.CO;2-2 class='badge bg-secondary rounded-pill ref-badge extid-badge'>DOI

[5] M.A.Khokhlov, D.A.Ishchenko, “Structural superlight porous metals (Review)”, Automatic welding, 2015, no. 3-4, 57–62

[6] A.V.Gerasimov, S.V.Pashkov, Yu.F.Khristenko, RF Patent No 2623782, 06/29/2017

[7] V.M.Maltsev, E.A.Butakova, S.D.Korsun et al., RF patent No 2049763 C1, 1995.12.10

[8] S.A.Vodennikov, “On the mechanism of structure formation of the surface layer of porous titanium with a strengthening aluminide coating”, Newsletter of KNU named after Mikhaila Ostrogradsky, 65:6 (2010), 98–100

[9] A.A.Ilyin, B.A.Kolachev, I.S.Polkin, Titanium alloys. Composition, structure, properties. Directory, VILS–MATI, M., 2009 (in Russian)

[10] B.A.Kolachev, V.I.Elagin, V.A.Livanov, Metal science and heat treatment of non-ferrous metals and alloys, MISiS, 2005

[11] R.Lapovok, D.Tomus, “Muddle BC Low-temperature compaction of Ti–6Al–4V powder using equal channel angular extrusion with back pressure”, Materials Science and Engineering: A, 490:1-2 (2008), 171–180 | DOI

[12] A.Hasui, O.Morigaki, Surfacing and sputtering, Mechanical Engineering, M., 1985

[13] L.I.Tushinsky, Structural theory of structural strength of materials, NSTU, 2004

[14] A.N.Cherepanov, V.O.Drozdov, A.M.Orishich et al., “The influence of nanomodifying additives on the properties of a multilayer composite coating obtained by laser surfacing”, Physics of metals and metal science, 120:1 (2019), 107–112

[15] A.N.Cherepanov, O.A.Shmagunov, “The influence of nanomodifying additives on the dissolution of titanium carbide in a titanium melt”, Thermodynamics and aerodynamics, 5 (2021), 781–786

[16] E.Rudy, Ternary phase equlibria in transition metal boron-carbon-silicon systems, AFML-TR-65-2. Part 1, Vol. 4, 1965, 48 pp. | Zbl

[17] L.Stone, H.Mafgolin, “Titanium-Rich Regions of the Ti-CN, Ti-C-0, and Ti-N-0 Phase Diagrams”, Trans. Am. Inst. Mining Met. Engrs., 1 (1953), 1498–1502

[18] R.A.Andrievsky, I.I.Spivak, Strength of refractory compounds and materials, Metallurgy, Chelyabinsk, 1989