Typical Audio Measurements in Oscillatory Ball Milling Processes and its Relationship with the Rate of Energy Transferred to the Powder

C. Cuadrado-Laborde; L. Damonte; L. Mendoza-Zélis

doi:10.4028/www.scientific.net/JMNM.20-21.169

Paper Titles

Phase Transformations during the Preparation of Ti₆Si₂B by High-Energy Ball Milling
p.145

Formation of Ni-Al and Ni-Al-X Phases by Mechanical Alloying
p.151

Thermal Stability of Ball Milled Al / Al-Cu-Fe Quasicrystal Metal Matrix Composites
p.157

Characterization of Novel Mn₃ O₄ Catalysts Synthesized through a Microwave Irradiation Assisted-Route
p.163

Typical Audio Measurements in Oscillatory Ball Milling Processes and its Relationship with the Rate of Energy Transferred to the Powder
p.169

Gas Atomization of Nanocrystalline Fe₆₃Nb₁₀Al₄Si₃B₂₀ Alloy
p.175

Nanostructured Al₈₉Fe₁₀Zr₁ Alloy Obtained by Mechanical Alloying
p.183

Consolidation of Ultrafine Grained Copper Powder by Warm Isostatic Pressing
p.189

Characterization of Diamond Replicas Microfabricated Using Silicon Molds
p.195

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Typical Audio Measurements in Oscillatory Ball Milling Processes and its Relationship with the Rate of Energy Transferred to the Powder

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Journal of Metastable and Nanocrystalline Materials (Volumes 20-21)

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169-174

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https://doi.org/10.4028/www.scientific.net/JMNM.20-21.169

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Online since:

July 2004

Authors:

C. Cuadrado-Laborde, L. Damonte, L. Mendoza-Zélis

Keywords:

Ball Milling, Energy Transfer, Mechanically-Induced Self-Propagating Reactions, Sound Analysis

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References

[1] E. Gaffet et al., Journal of Materials Chemistry 9, 305 (1999).

Google Scholar

[2] C. Gras et al. , Intermetallics 10, 271 (2002).

Google Scholar

[3] L. Takacs, Materials Science Forum 225-227, 553 (1996).

Google Scholar

[4] L. Takacs, Progress in Materials Science 47, 355 (2002).

Google Scholar

[5] G. Mulas, L. Schiffini and G. Cocco, Materials Science Forum 225-227, 237 (1996).

Google Scholar

[6] T. H. Courtney and D. Maurice, Scripta Materialia 34, 5 (1996).

Google Scholar

[7] A. Iasonna and M. Magini, Acta Materiallia 44 No. 3, 1109 (1996).

Google Scholar

[8] Y. Chen et al., Phys. Rev. B 48, 14 (1993).

Google Scholar

[9] D. R. Maurice and T. H. Courtney, Metallurgical Transactions A 21A, 289 (1990).

Google Scholar

[10] G. Cocco, G. Mulas, and L. Schiffini, Materials Transactions, JIM 36 No. 2, 150 (1995).

Google Scholar

[11] G. Mulas, S Loiselle, L. Schiffini and G. Cocco, Journal of Solid State Chemistry 129, 263 (1997).

DOI: 10.1006/jssc.1996.7238

Google Scholar

[12] Goldman, S. In: `Vibration Spectrum Analysis. A Practical Approach. ' Second edition, Industrial Press Inc (1999).

Google Scholar

[13] Robert Muller. Journal of Cereal Science 37, 241 (2003).

Google Scholar

[14] L. Liu, K. Cui. Journal of Materials Processing Technology 138, 394 (2003).

Google Scholar

[15] M. Magini, A. Iasonna, Mater. Trans. JIM 36, 123 (1995).

Google Scholar

[16] G. B. Schaffer and P. G. McCormick, Materials Science Forum 88-90, 779 (1992).

Google Scholar

[17] C. Cuadrado-Laborde, L.C. Damonte and L. Mendoza-Zélis, Hyperfine Interactions 134, 131 (2001).

DOI: 10.1023/a:1013870113803

Google Scholar

[18] C. Cuadrado-Laborde, L.C. Damonte and L. Mendoza-Zélis, Materials Science and Engineering A, 355/1-2, 106 (2003).

Google Scholar