Materials and technologies for production products by additive manufacturing
Čebyševskij sbornik, Tome 20 (2019) no. 3, pp. 453-477.

Voir la notice de l'article provenant de la source Math-Net.Ru

The paper presents comparative schemes of classical production of complex products and their manufacturing with using additive technologies, including the main positive and negative aspects of using additive technologies. The article listes the main technologies of additive manufacturing of products, indicating the specifics of their application. The paper describes the methods of production and properties of powder materials. The spheroidization technology of powder materials and its post-processes is described. The article presents the concept of full cycle additive manufacturing. The basic software packages for modeling the processes of additive production of products from various metal systems are presented.
Keywords: additive technologies, powder materials, spheroidization, hot isostatic pressing, modeling.
@article{CHEB_2019_20_3_a31,
     author = {A. N. Kubanova and A. N. Sergeev and N. M. Dobrovolskii and A. E. Gvozdev and P. N. Medvedev and D. V. Maliy},
     title = {Materials and technologies for production products by additive manufacturing},
     journal = {\v{C}eby\v{s}evskij sbornik},
     pages = {453--477},
     publisher = {mathdoc},
     volume = {20},
     number = {3},
     year = {2019},
     language = {ru},
     url = {http://geodesic.mathdoc.fr/item/CHEB_2019_20_3_a31/}
}
TY  - JOUR
AU  - A. N. Kubanova
AU  - A. N. Sergeev
AU  - N. M. Dobrovolskii
AU  - A. E. Gvozdev
AU  - P. N. Medvedev
AU  - D. V. Maliy
TI  - Materials and technologies for production products by additive manufacturing
JO  - Čebyševskij sbornik
PY  - 2019
SP  - 453
EP  - 477
VL  - 20
IS  - 3
PB  - mathdoc
UR  - http://geodesic.mathdoc.fr/item/CHEB_2019_20_3_a31/
LA  - ru
ID  - CHEB_2019_20_3_a31
ER  - 
%0 Journal Article
%A A. N. Kubanova
%A A. N. Sergeev
%A N. M. Dobrovolskii
%A A. E. Gvozdev
%A P. N. Medvedev
%A D. V. Maliy
%T Materials and technologies for production products by additive manufacturing
%J Čebyševskij sbornik
%D 2019
%P 453-477
%V 20
%N 3
%I mathdoc
%U http://geodesic.mathdoc.fr/item/CHEB_2019_20_3_a31/
%G ru
%F CHEB_2019_20_3_a31
A. N. Kubanova; A. N. Sergeev; N. M. Dobrovolskii; A. E. Gvozdev; P. N. Medvedev; D. V. Maliy. Materials and technologies for production products by additive manufacturing. Čebyševskij sbornik, Tome 20 (2019) no. 3, pp. 453-477. http://geodesic.mathdoc.fr/item/CHEB_2019_20_3_a31/

[1] Kalaida T. A., “The method of selective laser melting for the creation of products with complex geometry”, Physico-chemistry and technology of inorganic materials, Proceedings of the XV Russian annual conference of young researchers and postgraduates (Moscow, 2018), 55–56

[2] Dezhina I. G., Ponomarev A. K., Frolov A. S., New production technologies: public analytical report, “Delo” RANHiGS, M., 2015, 272 pp.

[3] Gvozdev A. E., Production of high-speed tool blanks in conditions of superplasticity, Mashinostroenie, M., 1992, 176 pp.

[4] Powders for 3D Printing, MKNANO, (accessed 24.10.2019) https://mknano.com/3-D-Printing-Additive-Manufacturing-Materials/Metal-Powders/Spherical-Metal-Powders/Powders-for-3D-Printing

[5] Additive manufacturing. Different kinds of additive manufacturing, ScanAndMake, (accessed 24.10.2019) https://scanandmake.com/additive-manufacturing#collapse3

[6] Kaplan M. A., “Research of structure of spherical powder of corrosion-resistant steel 316L for additive production”, Physical chemistry and technology of inorganic materials, Proceedings of XV Russian annual conference of young scientists and postgraduates (Moscow, 2018), 468–469

[7] Back from virtuality (accessed 24.10.2019)

[8] Vladislavskaya E. Yu., “Investigation of mechanical characteristics of samples from martensitic aging steel 08X18K9M5T synthesized by selective laser fusion”, Physical chemistry and technology of inorganic materials, Proceedings of the XV Russian annual conference of young researchers and postgraduates (Moscow, 2018), 38–39

[9] The Types Of 3D Printing, All About 3D Printing, (accessed 24.10.2019) http://allabout3dprinting.com/types-of-3d-printing/

[10] Laser sintering, melting and others — SLS, SLM, DMLS, DMP, EBM, SHS, 3D Printing and Design, (accessed 24.10.2019) https://www.additive.blog/knowledge-base/3d-printers/laser-sintering-melting-sls-slm-dmls-dmp-ebm-shs/

[11] Spark plasma sintering system, Systeme GmbH (FCT), (accessed 24.10.2019) http://www.fct-systeme.de/en/content/Spark_Plasma_Sinteranlagen/ñm.12ñc.26

[12] Mantsybora A. A., Polonik M. V., “Calculation by finite element method of optical fiber laser processing of a material of a given configuration”, Deformation and destruction of materials and nanomaterials, Proceedings of the VII international conference, IMET RAN, M., 2017, 951 pp.

[13] Antonov A. A., Artemyev A. A., Sokolov G. N., “Development of cored wire for arc surfacing of wear-resistant alloy of Fe-Cr-C-Mo-Ni-Ti-B system”, Deformation and destruction of materials and nanomaterials, Proceedings of the VII international conference, IMET RAN, M., 2015, 953 pp.

[14] Jing G., Yong Zh., Changmeng L., Qianru W., Xianping Ch., Jiping L., “Wire Arc Additive Manufacturing of AZ31 Magnesium Alloy: Grain Refinement by Adjusting Pulse Frequency”, Metals for Additive Manufacturing, 9:10 (2016), 823 | DOI

[15] Kapralov E. V., Budovskikh E. A., Kapralov E. V., Budovskikh E. A., Gromov V. E., Raikov S. V., Ivanov Yu. F., Structure and properties of composite wear-resistant surfacing on steel, Izd. centr SibGIU, Novokuznetsk, 2014, 109 pp.

[16] 3D printer powder metal. Principles, capabilities, supplies, Computer help (accessed 24.10.2019)

[17] Mechanic A., 3D fans should calm down a bit. Science and technology, Stimulus (accessed 24.10.2019)

[18] Laser Metal Deposition Resolution, (accessed 24.10.2019) https://www.auroralilys.com/index5.php?yhsw=laser-metal-deposition-resolution

[19] Levashov E. A., Kaplansky Yu. Yu., Kurbatkina V. V., Patsera E. I., Samokhin A. V., Fadeev A. A., Martynov D. A., Gurskikh A. V., Chupeeva A. N., “A new generation of heat-resistant Nickel alloys with hierarchical structure and their application in additive technologies”, Proceedings of the 13th international scientific and technical conference (Minsk, 2018), 62–65

[20] Grigorovich K. V., “Modern possibilities by the method of determination of gas-forming impurities and nonmetallic inclusions in metals and alloys”, Physico-chemistry and technology of inorganic materials, Proceedings of the XV Russian annual conference of young researchers and postgraduates (Moscow, 2018), 24–25

[21] Additive Manufacturing. With Amperprint for 3D-Printing you Have the Powder to Create, Höganäs, (accessed 24.10.2019) https://www.hoganas.com/en/powder-technologies/additive-manufacturing/3d-printing-powders/

[22] A look into powder materials for metal 3d printing, 3D-Printing Industry (3DPI), (accessed 24.10.2019) https://3dprintingindustry.com/news/a-look-into-powder-materials-for-metal-3d-printing-57788/

[23] Kirsankin A. A., “Obtaining spherical powders by gas atomization for additive production”, Physico-chemistry and technology of inorganic materials, Proceedings of the XV Russian annual conference of young researchers and postgraduates (Moscow, 2018), 58–59

[24] Fadeev A. A., “Spheroidization of metal powders of W-Ni-Fe system in thermal plasma of electric arc discharge”, Physico-chemistry and technology of inorganic materials, Proceedings of the XV Russian annual conference of young researchers and postgraduates (Moscow, 2018), 311–313

[25] Zlenko M. A., Nagaytsev M. V., Dovbysh V. M., Additive technologies in mechanical engineering, GNC RF FGUP «NAMI», 2015, 220 pp.

[26] Barakhtin B. K., Vasilyeva O. V., Zhukov A. S., Kuznetsov P. A., “Physico-chemical processes in powder consolidation in the method of selective laser fusion”, Deformation and destruction of materials and nanomaterials, Proceedings of the VII international conference, IMET RAN, M., 2017, 951 pp.

[27] Tungsten, TEKNA, (accessed 24.10.2019) http://www.tekna.com/spherical-powders/tungsten

[28] Spherical powders of refractory metals for additive technologies, JSC “POLEMA” (accessed 24.10.2019)

[29] Stroganov G. B., High-Strength casting aluminum alloys, Metallurgiya, M., 1985, 216 pp.

[30] Zoheir F., “The influence of porosity and hot isostatic pressing treatment on wear characteristics of cast and P/M aluminum alloys”, Wear, 271 (2011), 1594–1601 | DOI

[31] Padalko A. G., Praktika goryachego izostaticheskogo pressovaniya neorganicheskih materialov, Akademkniga, M., 2007, 267 pp.

[32] James T. Staley Jr, Murat Tiryakioglu, John Campbell, “The effect of increased HIP temperatures on biofilms and tensile properties of A206-T71 aluminum castings”, Materials Science and Engineering A, 460–461 (2007), 324–334 | DOI

[33] Belov A. F., Bondarev B. I., Shmakov Yu. V., “Properties of billets from aluminum alloys after hot isostatic pressing”, Non-Ferrous metals, 1983, no. 5, 65–67

[34] Akopyan T. K., “Influence of hot isostatic pressing on structure and properties of high-strength casting aluminum alloys of new generation-nikalins AC6R0, 5J and AC6N4”, Physico-chemistry and technology of inorganic materials, Proceedings of XI Russian annual conference of young scientists and postgraduates, IMET RAN, M., 2014, 619 pp.

[35] 3D Systems the Power of on Demand, 3D SYSTEMS, (accessed 24.10.2019) https://www.3dsystems.com/on-demand-manufacturing

[36] Frontrunner for New Production Process. Powder Production and 3D Printing, SMS group, , 2019 (accessed 24.10.2019) https://www.sms-group.com/plants/all-plants/powder-production-and-3d-printing/

[37] 3D Printing Software for Beginners and Pros, ALL3DP, (accessed 24.10.2019) https://all3dp.com/1/best-free-3d-printing-software-3d-printer-program/