Combustion Synthesis of Nanocomposite Powders Using A Mechanically Activated Process

REFERENCES

• Amosov , A.P. , Borovinskaya , I.P. , Merzhanov , A.G. , and Sytschev , A.E. 2006 . Regulation of particle size in SHS-produced powders: From single crystals to nanoparticles . Izv. Vyssh. Uchebn. Zaved., Tsvetn. Metall. , 5 , 9 – 22 ( in Russian ).
   Google Scholar
• Atias Adrian , I.C. , Ortigoza Villalba , G.A. , Deorsola , F.A. , and DeBenedetti , B. 2008 . Synthesis of Mg2Ni nanostructures by MASHS technique . J. Alloys Comp. , 466 , 205 – 207 .
   Google Scholar
• Bernard , F. , and Gaffet , E. 2001 . Mechanical alloying in SHS research . 2 , 109 – 131 .
   Google Scholar
• Charlot , F. , Gaffet , E. , Zeghmati , B. , Bernard , F. , and Niepce , J.C. 1999 . Mechanically activated synthesis studied by X-ray diffraction in the Fe–Al system . Mater. Sci. Eng., Ser. A , 262 , 279 – 288 .
   Google Scholar
• Gauthier , V. , Josse , C. , Bernard , F. , Gaffet , E. , and Larpin , J.P. 1999 . Synthesis of niobium aluminides using MASHS and mechanically activated annealing process . Mater. Sci. Eng., Ser. A , 265 , 117 – 128 .
   Google Scholar
• Gras , C. , Charlot , F. , Gaffet , E. , Bernard , F. , and Niepce , J.C. 1999 . In situ synchrotron characterization of mechanically activated self-propagating high-temperature synthesis applied in Mo-Si system . Acta Mater. , 47 , 2113 – 2123 .
   Google Scholar
• Gras , C. , Gaffet , E. , and Bernard , F. 2006 . Combustion wave structure during the MoSi2 synthesis by mechanically-activated self-propagating high-temperature synthesis (MASHS): In situ time-resolved investigations . Intermetallics , 14 , 521 – 529 .
   Web of Science ®Google Scholar
• Grigorieva , T. , Korchagin , M. , and Lyakhov , N. 2002 . Combination of SHS and mechanochemical synthesis for nanopowder technologies . KONA: Powder and Particle Journal , 20 , 144 – 158 .
   Google Scholar
• Gusev , A.I. , and Rempel , A.A. 2001 . Nanocrystalline Materials , Nauka , Moscow .
   Google Scholar
• Itin , V.I. , and Naiborodenko , Yu.S. 1989 . High-Temperature Synthesis of Intermetallic Compounds , Tomsk State University , Tomsk , Russia .
   Google Scholar
• Khina , B.B. 2008 . Effect of mechanical activation on SHS: Physicochemical mechanism . Int. J. SHS , 17 , 211 – 217 .
   Google Scholar
• Kiseleva , T.Yu. , Grigorieva , T.F. , Gostev , D.V. , Potapkin , V.B. , Falkova , A.N. , and Novakova , A.A. 2008a . Structural study of Fe–Al nanomaterial produced by mechanical activation and self-propagating high-temperature synthesis . Moscow University Physics Bulletin , 63 , 55 – 60 .
   Google Scholar
• Kiseleva , T.Yu. , Novakova , A.A. , Falkova , A.N. , Talako , T.L. , and Grigorieva , T.F. 2008b . Redistribution of chromium atoms between the components of an intermetallic/oxide nanocomposite in the course of its production . Moscow University Physics Bulletin , 63 , 290 – 292 .
   Google Scholar
• Korchagin , M.A. , and Dudina , D.V. 2007 . Application of self-propagating high-temperature synthesis and mechanical activation for obtaining nanocomposites . Combustion, Explosion, and Shock Waves , 43 , 170 – 175 .
   Google Scholar
• Korchagin , M.A. , Grigorieva , T.F. , Bokhonov , B.B. , Sharafutdinov , M.R. , Barinova , A.P. , and Lyakhov , N.Z. 2003a . Solid-state combustion in mechanically activated SHS systems. I. Effect of activation time on process parameters and combustion product composition . Combust. Explos. Shock Waves , 39 ( 1 ), 43 – 50 .
   Google Scholar
• Korchagin , M.A. , Grigorieva , T.F. , Bokhonov , B.B. , Sharafutdinov , M.R. , Barinova , A.P. , and Lyakhov , N.Z. 2003b. Solid-state combustion in mechanically activated SHS systems. II. Effect of mechanical activation conditions on process parameters and combustion product. Composition, Combust. Explos. Shock Waves , 39(1), 51–58.
   Google Scholar
• Letsko , A.I. , Talako , T.L. , Ilyuschenko A.F., Grigoreva , T.F. , and Lyakhov , N.Z. 2009 . Mechanical activation of charge mixture for self-propagating high-temperature synthesis of iron aluminides . Chemistry for Sustainable Development , 6 , 621 – 628 .
   Google Scholar
• Maglia , F. , Anselmi-Tamburini , U. , Deidda , C. , Delogu , F. , Cocco , G. , and Munir , Z.A. 2004 . Role of mechanical activation in SHS of TiC . J. Mater. Sci. , 39 , 5227 – 5230 .
   Web of Science ®Google Scholar
• Maglia , F. , Milanese , C. , Anselmi-Tamburini U., Doppiu , S. , and Cocco , G. 2002 . Combustion Synthesis of mechanically activated powders in the Nb–Si system . J. Mater. Res. , 17 , 1992 – 1999 .
   Google Scholar
• Medda , E. , Delogu , F. , and Cao , G. 2003 . Combination of mechanochemical activation and self-propagating behavior for the synthesis of Ti aluminides . Mater. Sci. Eng., Ser. A , 361 ( 1–2 ), 23 – 28 .
   Google Scholar
• Reddy , B.S.B. , Rajasekhar , K. , Venu , M. , Dilip , J.J.S. , Das , S. , and Das , K. 2008 . Mechanical activation-assisted solid-state combustion synthesis of in-situ aluminum matrix hybrid (Al3Ni/Al2O3) nanocomposites . J. Alloys Comp. , 465 , 97 – 105 .
   Google Scholar
• Talako , T. , Grigorieva , T. , Vitiaz , P. , Lyakhov , N. , Letsko , A. , and Barinova , A. 2007 . Structure and peculiarities of nanocomposite powder Fe40Al/Al2O3 produced by MASHS . Mater. Sci. Forum , 534–536 , 1421 – 1424 .
   Google Scholar
• Talako , T.L. , Grigorieva , T.F. , Letsko , A.I. , Barinova , A.P. , Vitiaz , P.A. , and Lyakhov , N.Z. 2009 . Mechanoactivated SHS of FeAl-based nanocomposite powders . Int. J. SHS , 18 , 125 – 132 .
   Google Scholar
• Varma , A. , Rogachev , A.S. , Mukasiyan , A.S. , and Hwang , S. 1998 . Combustion synthesis of advanced materials: Principles and applications . Adv. Chem. Eng. , 24 , 79 – 226 .
   Google Scholar