2020 №02 (07) DOI of Article
2020 №02 (09)

The Paton Welding Journal 2020 #02
TPWJ, 2020, #2, 41-46 pages
Additive electron beam equipment for layer-by-layer manufacture of metal products from powder materials

V.A. Matviichuk and V.M. Nesterenkov
E.O. Paton Electric Welding Institute of the NAS of Ukraine 11 Kazymyr Malevych Str., 03150, Kyiv, Ukraine. E-mail: office@paton.kiev.ua

On the basis of small-sized equipment SV-212M for electron beam welding, a mock-up of additive technological equipment was created to reproduce the process of manufacturing parts according to set shape and properties, applying the method of layer-by-layer surfacing with the use of metal powder materials. A hardware and software platform for the control of equipment was developed, which was integrated into additive technological equipment. The platform consists of hardware controller, which was developed on the basis of the industrial controller cRIO-9039 produced by the National Instruments Company (USA) and software for 3D-printing. On the created equipment, a test specimen of the product of a set shape with the following geometric dimensions: outer diameter — 85 mm, inner diameter — 55 mm, height — 35 mm was produced. For manufacturing, the powder of VT-20 titanium of the domestic Ti-Technology Company was used. Metallographic examinations of the specimen were carried out. It was established that the surfacing structure in the body of crystallites mainly has a branchy α′-phase and a small amount of (β-phase, which is characteristic of cast titanium alloy VT-20. The grain boundaries are pure, without inclusions. Parts of the specimen are without pores, which evidences about a complete penetration of the powder layer in the process of 3D-printing. The hardness of the metal in all the areas is not significantly different and is in the range from HV 3960 to HV 4150 MPa. According to the results of investigations the conclusions were made. 10 Ref., 1 Table, 13 Figures.
Keywords: additive technologies, electron beam, surfacing, metal powder, titanium alloy, control platform, metallography, investigations

Received 08.01.2020


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