Application of Inorganic Nanopowders in Welding, Surfacing and Spraying (Review)

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The paper reviews research works on nanoincorporated consumables for welding, surfacing and spraying. Use of metal and compound nanoparticles is considered such as tungsten carbide, tungsten-cobalt carbide, chromium carbide, titanium carbonitride, aluminum oxide and others. It has been proved that inoculation of nanopowders results in modification of metal structure and improves service performance of weld joints.

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299-303

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June 2015

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© 2015 Trans Tech Publications Ltd. All Rights Reserved

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[1] Baloyan B.M., Kolmakov A.G., Alymov M.I., Krotov A.M., Nanomaterials. Classification, characteristics, application and manufacturing techniques, Study Guide. Moscow, 2007, 125 p.

Google Scholar

[2] Kochanov D.I., Nanomaterials and nanotechnology for engineering: condition and prospects of application, J. Rhythm. 8 (2010) 16-21.

Google Scholar

[3] Sokolov G.N., Lisak I.V., Troshkov A.S. Modifying of weld metal structure with nano tungsten carbides, J. Physics and chemistry of materials processing. 6 (2009) 41-47.

Google Scholar

[4] Sokolov G.N., Troshkov A.S., Effect of nano carbides WC and nickel on weld metal structure and properties, J. Welding and diagnostics. 3 (2011) 36-38.

Google Scholar

[5] Eremin E.N., Application of high-melting compound nanoparticles to improve quality of superalloy welded joints, J. Scientific Herald of Omsk. 3 (2009) 63-67.

Google Scholar

[6] Stepanov K.K., Matvienko V.N., Oldakovsky A.I., Modifying of medium-chrome weld metal, J. Automated welding. 8 (2011) 2-14.

Google Scholar

[7] Parshin S, G, Application of ultrafine particles in activating fluxes for MIG / MAG weld rate, J. Welding. 6 (2011) 16-21.

Google Scholar

[8] Parshin S.G., MIG welding of steels with nanostructured electrode materials, J. Welding. 10 (2011) 27-31.

Google Scholar

[9] Parshin S.G. Increase of WIG weld rating when inoculation of ultrafine particles in activating fluxes, J. Welding. 3 (2012) 7-11.

Google Scholar

[10] Makarov S. V and Sapozhkov S. B., Application of complex nanopowder (Al2O3, Si, Ni, Ti, W) in manufacture of MAW electrodes, J. (Special Issue on Techniques and Technologies) World Applied Sciences Journal. 22 (2013) 87-90.

Google Scholar

[11] Makarov S. V. and Sapozhkov S.B. Manufacture of MAW electrodes from nanodisperse materials / World Applied Sciences Journal. 29 (6) (2014) 720-723.

Google Scholar

[12] Smirnov A.N., Knyazkov K.V., Radchenko M.V., Kozlov E.V., Knyazkov V.L., Structural-phase state and internal stress fields in wear-resistant nano-incorporated Al2O3 coatings. Part 1 - Materials, Methods of Research and Role of Chemical Elements, J. Bulletin of Kuzbass State Technical University. 4 (2012).

Google Scholar

[13] Smirnov A.N., Knyazkov K.V., Radchenko M.V., Kozlov E.V., Knyazkov V.L., Structural-phase state and internal stress fields in wear-resistant coatings of Ni-Cr-B-Si-Fe / WC system and in nano-incorporated Al2O3 coatings. Part 2 - Phase composition of coatings, J. Bulletin of Kuzbass State Technical University. 5 (2012).

DOI: 10.17073/0368-0797-2016-4-245-250

Google Scholar

[14] Smirnov A.N., Knyazkov K.V., Radchenko M.V., Kozlov E.V., Knyazkov V.L., Structural-phase state and internal stress fields in wear-resistant coatings of Ni-Cr-B-Si-Fe / WC system and in nano-incorporated Al2O3 coatings. Part 3 – Structure, Phase State and Internal Stress Fields in samples, J. Bulletin of Kuzbass State Technical University. 6 (2012).

DOI: 10.17073/0368-0797-2016-4-245-250

Google Scholar

[15] Smirnov A.N., Knyazkov V.L., Radchenko M.V., Effect of Al2O3 nanoparticles on structural-phase states of Ni-Cr-B-Si-Fe / WC coatings, deposited by plasma powder surfacing, J. Welding and diagnostics. 5 (2012) pp.32-37.

Google Scholar

[16] Lebedev D.I., Vinokourov G.G., Struchkov N.F., Investigation of contacts of nano-incorporated wear-resistant thermal coatings with steel counter-bodies at sliding friction, J. Modern scientific technology. 1 (2014) 42-45.

Google Scholar

[17] Linnik A.A., Kobernik N.V., Doping of weld metal with tungsten carbide powder additives during submerged arc welding, All-Russian Scientific Conference of Students, 2013: Engineering technologies.

Google Scholar

[18] Troshkov A.S., Sokolov G.N., Sycheva S.S., Lisak V.I., Structure and properties of low carbon metal deposited under ceramic flux with Ni-nanoscale WC, J. Bulletin of Volgograd State Technical University. 6 (2012) 187-190.

Google Scholar

[19] Kobernik N.V. Mikheev R.S., Pankratov A.S., Linnik A.A. Modification of weld metal with nano tungsten carbide to improve performance properties of welded joints, J. Engineering Bulletin. 4 (2013) 9-12.

Google Scholar

[20] Riabtsev I.A., Kondratyev I.A., Effect of ultrafine carbide-incorporated cored wires on heat resistant properties of weld metal, J. Automated welding. 6 (2009) 13-15.

Google Scholar

[21] Litvenenko-Arkov V.B., Sokolov G.N., Kyazymov F.A., Structure and properties of heat-resistant metal deposited with TiCN nano-incorporated wires, J. News of Volgograd State Technical University. 6 (2012) 194-197.

Google Scholar

[22] Krivchikov S. Yu., Effect of aluminum-incorporated cored wire on the properties of high-carbon weld metal, J. Automated welding. 5 (2012) 38-39.

Google Scholar

[23] Klimpel A., Kik T. Erosion and abrasion wear resistance of GMA wire surfaced with nano-structured deposits, J. Archives of Materials Science and Engineering. 2 (2008) 121-124.

Google Scholar

[24] Eremin E.N., Losev A.S., Filippov Yu.O. Eremin A.E., Cored wire, Invention patent number 2350448 (RF).

Google Scholar

[25] Losev A.S., Eremin E.N., Mukhin V.F. Cored wire, Invention patent number 2429957 (RF).

Google Scholar