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MATERIALS SCIENCE
Название Obtaining the high-pure titanium based alloys. Investigation of their composition and properties
DOI 10.17580/tsm.2017.06.14
Автор Kotsar M. L., Kaplenkov V. N., Alekberov Z. M.
Информация об авторе

Leading scientific-investigation institute of chemical technology (VNIIKhT), Moscow, Russia:

M. L. Kotsar, Head of Laboratory, e-mail: kotsar@vniiht.ru
V. N. Kaplenkov, Leading Researcher
Z. M. Alekberov, Leading Engineer

Реферат

We analyzed the possible reasons of titanium alloy products cracking in the nuclear energetic units' heat-exchange equipment as a result of hydration. One of the basic factors, defining the low hydrogen resistance of alloys is the insufficient purity of their basis (titanium sponge (O, N, C, Fe)), and usage for titanium β-phase stabilizers alloying (Si, V, Cr, Mn, Fe, Mo). The low stability of the properties of the shape memory alloys based on titanium nickelide is also connected with insufficient purity of the basic components (O, N, C, Fe et al.). Iodide titanium TI-1, obtained from wastes and circulation of titanium rolled products is offered to use as alternative to titanium sponge. The leading scientific-investigation institute of chemical technology created and operates the experimental base for obtaining of alloys based on high-pure titanium for nuclear energetics, aviation-space and medical equipment, investigation of their composition, structure and properties. This base includes the complex of furnace equipment for smelting of titanium-based alloys and material science complex. On the basis of high-pure (iodide) titanium, argon arc and induction smelting of charges obtained the basic and new α-alloys with Al, Zr and Sn for heatexchange equipment of nuclear energetic units and the shape memory alloy of TiNi. Their chemical composition and hardness (HB, HV) were investigated. Institute of Metallurgy and Materials Science carried out the cold and hot deformation of alloy samples before the belt and after etching and annealing, and their preparation to transfer in specialized material science organizations for investigation of microstructure and definition of physical-mechanical and corrosion properties.

Ключевые слова Titanium iodide, basis, α-alloys, nuclear energetic, heat exchange equipment, life service, extension, medical equipment, titanium nickelide, reshaping, temperature, stability, precussors
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