Formation of New Intermetallic Phases in the Ta–Ni–Al System

The peculiarities of structure and phase formation in the 5 Ta–2 Ni–3 Al intermetallic system are studied in the paper. The TaNiAl, NiAl, Ni 2 Al 3 , and Ta phases are found in the alloy produced by self-propagating high-temperature synthesis (SHS). A transition layer with the composition of Ta 51 N...

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Veröffentlicht in:Inorganic materials : applied research 2020, Vol.11 (2), p.271-276
Hauptverfasser: Shchukin, A. S., Kovalev, D. Yu, Sytschev, A. E., Shcherbakov, A. V.
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container_title Inorganic materials : applied research
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creator Shchukin, A. S.
Kovalev, D. Yu
Sytschev, A. E.
Shcherbakov, A. V.
description The peculiarities of structure and phase formation in the 5 Ta–2 Ni–3 Al intermetallic system are studied in the paper. The TaNiAl, NiAl, Ni 2 Al 3 , and Ta phases are found in the alloy produced by self-propagating high-temperature synthesis (SHS). A transition layer with the composition of Ta 51 Ni 20 Al 29 about 1–2 μm thick is formed on the interface between the unreacted Ta particles and the TaNiAl phase. Remelting of the synthesized alloy at a temperature of about 3000°C leads to the formation of three structural components with the following compositions: Ta 85 Ni 7 Al 8 , Ta 52 Ni 20 Al 28 , and Ta 53 Ni 25 Al 22 . X-ray analysis of the remelted alloy shows the presence of reflections that do not correspond to any of the known phases in the Ta–Ni–Al system. An alloy with a similar composition is synthesized by electrothermal explosion (ETE) under load. The synthesized alloy has a heterogeneous structure and multiphase composition of the surface layer which is similar to the alloy produced by SHS. The central region of the sample produced by ETE is similar to the structural and phase composition of the sample melted at temperature of 3000°C. The obtained data show the possibility of synthesizing in the Ta–Ni–Al system various phases with high Ta content (more than 50 at %).
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S. ; Kovalev, D. Yu ; Sytschev, A. E. ; Shcherbakov, A. V.</creator><creatorcontrib>Shchukin, A. S. ; Kovalev, D. Yu ; Sytschev, A. E. ; Shcherbakov, A. V.</creatorcontrib><description>The peculiarities of structure and phase formation in the 5 Ta–2 Ni–3 Al intermetallic system are studied in the paper. The TaNiAl, NiAl, Ni 2 Al 3 , and Ta phases are found in the alloy produced by self-propagating high-temperature synthesis (SHS). A transition layer with the composition of Ta 51 Ni 20 Al 29 about 1–2 μm thick is formed on the interface between the unreacted Ta particles and the TaNiAl phase. Remelting of the synthesized alloy at a temperature of about 3000°C leads to the formation of three structural components with the following compositions: Ta 85 Ni 7 Al 8 , Ta 52 Ni 20 Al 28 , and Ta 53 Ni 25 Al 22 . X-ray analysis of the remelted alloy shows the presence of reflections that do not correspond to any of the known phases in the Ta–Ni–Al system. An alloy with a similar composition is synthesized by electrothermal explosion (ETE) under load. The synthesized alloy has a heterogeneous structure and multiphase composition of the surface layer which is similar to the alloy produced by SHS. The central region of the sample produced by ETE is similar to the structural and phase composition of the sample melted at temperature of 3000°C. 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X-ray analysis of the remelted alloy shows the presence of reflections that do not correspond to any of the known phases in the Ta–Ni–Al system. An alloy with a similar composition is synthesized by electrothermal explosion (ETE) under load. The synthesized alloy has a heterogeneous structure and multiphase composition of the surface layer which is similar to the alloy produced by SHS. The central region of the sample produced by ETE is similar to the structural and phase composition of the sample melted at temperature of 3000°C. 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subjects Chemistry
Chemistry and Materials Science
Heterogeneous structure
Industrial Chemistry/Chemical Engineering
Inorganic Chemistry
Intermetallic phases
Materials Science
Melting
Nickel aluminides
Nickel base alloys
Nickel compounds
Phase composition
Physicochemical Principles of Creating Materials and Technologies
Self propagating high temperature synthesis
Surface layers
Transition layers
X ray analysis
title Formation of New Intermetallic Phases in the Ta–Ni–Al System
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