The Investigation of Physical-mechanical Properties of Intermetallic Ni-Al Catalyst with Nanostructure

被引:0
|
作者
Yuriy, Belokon [1 ]
Aleksandr, Zherebtsov [2 ]
Karina, Belokon [3 ]
Aleksandr, Fedchenok [4 ]
机构
[1] Zaporizhia State Engn Acad, Dept Met, Zaporizhia, Ukraine
[2] Zaporizhia State Engn Acad, Dept Nat Sci, Zaporizhia, Ukraine
[3] Zaporizhia State Engn Acad, Dept Labor & Ecol Protect, Zaporizhia, Ukraine
[4] Zaporizhia State Engn Acad, Dept Civil Engn, Zaporizhia, Ukraine
来源
2017 IEEE INTERNATIONAL YOUNG SCIENTISTS FORUM ON APPLIED PHYSICS AND ENGINEERING (YSF) | 2017年
关键词
intermetallide; nickel aluminide; SHS; nanostructure; mechanical properties; STABILITY;
D O I
暂无
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Intermetallic Ni(3)AI synthesized from mixtures of nickel and aluminum powders with subsequent applications of pressure is studied for its structure and temperature dependences of its mechanical properties during tensile, compression, torsion and bending tests. Potentialities to increase ductility and strength of this material are revealed. The yield point of the material at room temperature is 280 MPa. As the temperature rises, it increases monotonically, reaching a maximum (500 MPa) at 873 K. An analogous temperature dependence of the yield strength of cast NiAl3 stoichiometric composition. A nanostructure consisting of hexagonal plates with a diameter of about 2 mu m and a thickness of 200-300 nm is formed on the surface. Plates are generally oriented perpendicular to the surface of the substrate on which they grow. Often they coalesce along the ribs, forming stars. There are also areas on which the plates coalesce along the faces, forming extended columnar structures.
引用
收藏
页码:299 / 302
页数:4
相关论文
共 50 条
  • [1] THE INTERMETALLIC COMPOUNDS FORMATION AND MECHANICAL PROPERTIES OF COMPOSITES IN THE NI-AL SYSTEM
    Kurapova, O. Y.
    Smirnov, I. V.
    Solovyeva, E. N.
    Konakov, Y. V.
    Lomakina, T. E.
    Glukharev, A. G.
    Konakov, V. G.
    MATERIALS PHYSICS AND MECHANICS, 2022, 48 (01): : 136 - 146
  • [2] Mechanical properties and microstructure of intermetallic coating on the basis of the Ni-Al system
    Sergeev, VP
    Fedorischeval, MV
    Voronov, AV
    Popova, NA
    Kozlov, EV
    Korus 2004, Vol 3, Proceedings, 2004, : 153 - 157
  • [3] An investigation into the fabrication and electrical properties of Ni-Al intermetallic compound thin
    Zhou, Jicheng
    Zhu, Jinbo
    Yan, Jianwu
    INTERNATIONAL JOURNAL OF MODERN PHYSICS B, 2008, 22 (07): : 877 - 888
  • [4] INVESTIGATION OF THE THERMODYNAMIC PROPERTIES OF NI-AL INTERMETALLIC COMPOUNDS BY AN EMF METHOD
    WANG, JS
    ENGELL, HJ
    STEEL RESEARCH, 1992, 63 (08): : 320 - 323
  • [5] Metallographic investigation of some Ni-Al intermetallic phases
    Waly, MA
    ANALYSIS OF IN-SERVICE FAILURES AND ADVANCES IN MICROSTRUCTURAL CHARACTERIZATION, 1999, 26 : 487 - 490
  • [6] Microstructure and mechanical properties of Ni-Al intermetallic thin coatings produced by magnetron sputtering
    Ogneva, T. S.
    Ruktuev, A. A.
    Lazurenko, D. V.
    Khomyakov, M. N.
    Karmanova, A. E.
    INTERNATIONAL CONFERENCE ON MECHANICAL ENGINEERING AND MODERN TECHNOLOGIES 2019 (MEMT2019), 2020, 795
  • [7] MICROSTRUCTURE AND MECHANICAL-PROPERTIES OF RAPIDLY SOLIDIFIED AND ANNEALED NI-AL INTERMETALLIC ALLOYS
    NOURBAKHSH, S
    CHEN, P
    ACTA METALLURGICA, 1989, 37 (06): : 1573 - 1583
  • [8] INVESTIGATION OF SOME PHYSICAL AND CHEMICAL PROPERTIES OF LIQUID NI-AL ALLOYS
    LEVIN, ES
    AYUSHINA, GD
    RUSSIAN METALLURGY-METALLY-USSR, 1971, (01): : 154 - &
  • [9] Formation of Intermetallic Ni-Al Coatings by Mechanical Alloying with Different Intensities
    Zadorozhnyy, V. Yu.
    Kaloshkin, S. D.
    Churyukanova, M. N.
    Borisova, Yu. V.
    METALLURGICAL AND MATERIALS TRANSACTIONS A-PHYSICAL METALLURGY AND MATERIALS SCIENCE, 2013, 44A (04): : 1779 - 1784
  • [10] PHYSICAL AND MECHANICAL PROPERTIES OF Ni-Al NANOALLOYS USING MOLECULAR DYNAMICS SIMULATION
    Fang, T. H.
    Chang, W. J.
    Cheng, P. C.
    DIGEST JOURNAL OF NANOMATERIALS AND BIOSTRUCTURES, 2016, 11 (01) : 23 - 32