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J Mater Sci Technol  1999, Vol. 15 Issue (06): 531-535    DOI:
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Structure of the Intermetallic Compound Ni3Al Synthesized under Compression of the Powder Mixture of Pure Elements Part I: Phase Composition and Microstructure of Main Phase
M.V.Fedorischeva, V.E.Ovcharenko, O.B.Perevalova, E.V.Kozlov
Institute of Strength Physics and Materials Science, Russian Academy of Sciences, Siberian Branch, Tomsk, Russia
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Abstract  It was shown by TEM and X-ray analysis that there are four types of grains of the main Ni3Al phase in the structure of the intermetallic obtained by the self-propagation high temperature method (SHS). Every type of grains has its own domain and dislocation structure. There are mono- and polydomains with and without dislocations. The grains of the main phase of mono- and polydomains without dislocations and polydomains with dislocations were formed by diffusion in the solid phase. In these conditions NiAl3 phase is located on the grain boundary of the main phase. The Ni2Al3 phase is located at the triple joints of the main phase.
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Received:  19 April 1999     
Corresponding Authors:  V.E.Ovcharenko     E-mail:  evgenii@fed.tomsk.ru

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M.V.Fedorischeva, V.E.Ovcharenko, O.B.Perevalova, E.V.Kozlov. Structure of the Intermetallic Compound Ni3Al Synthesized under Compression of the Powder Mixture of Pure Elements Part I: Phase Composition and Microstructure of Main Phase. J Mater Sci Technol, 1999, 15(06): 531-535.

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[1] A.G.Merjanov and O.E.Kasherininov: VINTI,1987,115. (In Russian)
[2] V.I.Itin and Ya.R Naiborodenko: High-temperatureSynthesis of Intermetallic Compounds, Tomsk,1989,214. (In Russian)
[3] Yu.S.Naiborodenko, N.G.Kasatskii and O.A.Shoda:Izv. VUZov. Physics, 1996, (7), 31. (In Russian)
[4] Yu.S.Naiborodenko and V.M.Filatov: Phy. Goreniyai Vzriva, 1995, 31, 20. (In Russian)
[5] M.A.Korchagin, B.B. Aleksandrov and B.A.Neronov:AN SSSR, Chem. Sci., 1979, 14(6), 104. (In Russian)
[6] O.V.Lapshin and B.E.Ovcharenko: Phy. Goreniya iVzriva, 1996, 32(3), 68. (In Russian)
[7] C.Nishimura and C.T.Liu: Acta Metall. Mater, 1993,41(1), 113.
[8] J.P.Lebrat and A.Varma: Combust Sci. and Technol,1992, 88, 211.
[9] S.Miura, T Ohashi and Y.Mishima: Intermetallics,1997, 5, 45.
[10] S.C.Deevi and V.R.Sikka: Intermetallics, 1997, 5, 17.
[11] V.E.Ovcharenko, V.E.Panin, G.A.Pribitkov andA.A.Golubev: Patent Russia No. 93028489. (In Rus-sian)
[12] L.I.Mirkin: X-ray Analysis, Moscow, 1961, 863. (InRussian)
[13] L.M.Ytevskii: Diffraction Electron Microscope inSolid, Moscow, 1973, 583. (In Russian).
[14] P.Hirsh, A.Hovi, R.Nikolson, D.Peshili and M.Yelan:Electron Microscope of Thin Crystals, Moscow, 1968,574. (In Russian)
[15] K.S.Chernyavskii: Stereologe in Solid, Moscow, 1977,279. (In Russian)
[16] J.J.Solorzano and J.C.Weatherly: Mater. Sci. andEng., 1986, 81, 101.
[17] H.Assadi, M.Barth, A.L.Greer and D.M.Herlach: ActaMetall., 1998, 46(2), 491.
[18] L.E.Popov, N.A.Koneva and I.V.Tereshko: Deforma-tion Hardening of Ordered Alloys, Moscow, 1979, 255.(In Russian)
[19] N.A.Koneva, O.B.Perevalova and E.V.Kozlov: Proc.of the 9th Int. Conf. on the Strength of Metals andAlloys, Haifa, Israel, 14-19 July, 1991. Frend Publish-ing Company Ltd, London, England, 1991, 295.
[20] G.V.Samsonov and I.M.Vinnitskii: Higb MeltingCompounds, Moscow, Metallurgy, 1976, 558. (In Rus-sian)
[21] Dg.Eshli: Elements, Moscow, 1993, 255. (In Russian)
[22] K.Dg Smitlz: Metals, Moscow, Metallurgy, 1980, 446.(In Russian)
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