Phase Equilibria in the Ternary Al–Ti–Pt System. III. The Al–Ti–Pt Melting Diagram in the Composition Range 0–50 at.% Pt

被引:0
|
作者
O. V. Zaikina
V. G. Khoruzhaya
K. Ye. Korniyenko
T. Ya. Velikanova
机构
[1] National Academy of Sciences of Ukraine,Frantsevich Institute for Problems of Materials Science
来源
关键词
phase equilibria; melting diagram; Scheil diagram; ternary compound; invariant equilibrium;
D O I
暂无
中图分类号
学科分类号
摘要
The melting diagram and reaction scheme (Scheil diagram) of the Al–Ti–Pt system have been constructed for the first time in the composition range 0–50 at.% Pt using the experimental results for as-cast alloys and alloys annealed at subsolidus temperatures. It is established that ternary compounds τ3, τ4, and τ8 form congruently with participation of the liquid phase and compounds τ1, τ2, τ5, τ6, τ7, τ9, and τ11 by peritectic reactions. All compounds take part in phase equilibria with participation of the liquid phase, forming 31 four-phase and 28 three-phase invariant equilibria at temperatures from 1410 to 660°C.
引用
收藏
页码:81 / 88
页数:7
相关论文
共 50 条
  • [1] PHASE EQUILIBRIA IN THE TERNARY Al-Ti-PT SYSTEM. III. THE Al-Ti-PT MELTING DIAGRAM IN THE COMPOSITION RANGE 0-50 at.% PT
    Zaikina, O. V.
    Khoruzhaya, V. G.
    Korniyenko, K. Ye.
    Velikanova, T. Ya.
    POWDER METALLURGY AND METAL CERAMICS, 2019, 58 (1-2) : 81 - 88
  • [2] Phase Equilibria in the Ternary Al–Ti–Pt System. IV. Vertical Sections in the Ternary Al–Ti–Pt System in the Composition Range 0–50 at.% Pt
    V. G. Khoruzhaya
    K. Ye. Korniyenko
    Powder Metallurgy and Metal Ceramics, 2019, 58 : 323 - 328
  • [3] Phase Equilibria in the Ternary Al–Ti–Pt System. I. Solidus Surface of the Al–Ti–Pt System in the Range 0–50 at.% Pt
    O. V. Zaikina
    V. G. Khoruzhaya
    K. Ye. Korniyenko
    K. A. Meleshevich
    D. V. Pavlyuchkov
    T. Ya. Velikanova
    Powder Metallurgy and Metal Ceramics, 2019, 57 : 587 - 595
  • [4] Phase Equilibria in the Ternary Al–Ti–Pt System. II. Liquidus Surface of the Al–Ti–Pt System in the Compositions Range 0–50 at.% Pt
    O. V. Zaikina
    V. G. Khoruzhaya
    K. Ye. Korniyenko
    D. V. Pavlyuchkov
    K. A. Meleshevich
    T. Ya. Velikanova
    Powder Metallurgy and Metal Ceramics, 2019, 57 : 709 - 715
  • [5] PHASE EQUILIBRIA IN THE TERNARY Al-Ti-Pt SYSTEM. IV. VERTICAL SECTIONS IN THE TERNARY Al-Ti-Pt SYSTEM IN THE COMPOSITION RANGE 0-50 at.% Pt
    Khoruzhaya, V. G.
    Korniyenko, K. Ye.
    POWDER METALLURGY AND METAL CERAMICS, 2019, 58 (5-6) : 323 - 328
  • [6] Phase Equilibria in the Ternary Al-Ti-Pt System. I. Solidus Surface of the Al-Ti-Pt System in the Range 0-50 at.% Pt
    Zaikina, O. V.
    Khoruzhaya, V. G.
    Korniyenko, K. Ye.
    Meleshevich, K. A.
    Pavlyuchkov, D. V.
    Velikanova, T. Ya.
    POWDER METALLURGY AND METAL CERAMICS, 2019, 57 (9-10) : 587 - 595
  • [7] Phase Equilibria in the Ternary Al-Ti-Pt System. II. Liquidus Surface of the Al-Ti-Pt System in the Compositions Range 0-50 at.% Pt
    Zaikina, O. V.
    Khoruzhaya, V. G.
    Korniyenko, K. Ye.
    Pavlyuchkov, D. V.
    Meleshevich, K. A.
    Velikanova, T. Ya.
    POWDER METALLURGY AND METAL CERAMICS, 2019, 57 (11-12) : 709 - 715
  • [8] The Constitution of Alloys and Phase Diagram of the Ternary Al–Cr–Pt System at 50–100 at.% Pt. II. Melting Diagram of the Al–Cr–Pt System at 50–100 AT.% Pt
    K. E. Kornienko
    V. G. Khoruzha
    V. M. Vereshchaka
    A. V. Samelyuk
    Powder Metallurgy and Metal Ceramics, 2013, 52 : 437 - 443
  • [9] The Constitution of Alloys and Phase Diagram of the Ternary Al-Cr-Pt System at 50-100 at.% Pt. II. Melting Diagram of the Al-Cr-Pt System at 50-100 AT.% Pt
    Kornienko, K. E.
    Khoruzha, V. G.
    Vereshchaka, V. M.
    Samelyuk, A. V.
    POWDER METALLURGY AND METAL CERAMICS, 2013, 52 (7-8) : 437 - 443
  • [10] The Constitution of Alloys and Phase Diagram of the Ternary Al–Cr–Pt System at 50–100 at.% Pt. I. Solidus Surface and Isothermal Section in the Al–Cr–Pt System at 1350 C in the Range 50–100 at.% Pt
    K. E. Kornienko
    V. G. Khoruzha
    K. A. Meleshevich
    M. V. Karpets
    Powder Metallurgy and Metal Ceramics, 2013, 52 : 314 - 328