Articoli correlati a Mössbauer Spectroscopy in Materials Science: 66

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9780792356400: Mössbauer Spectroscopy in Materials Science: 66

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This text is intended for those who are interested in practical applications of Mossbauer spectroscopy and therefore demands a basic knowledge of the underlying principles. The state of the art is demonstrated using examples from materials science drawn from the following areas: chemistry, mineralogy and metallurgy, artificially structured materials, nanosized materials and quasicrystals, and experimental techniques and data processing. The various techniques of Mossbauer spectroscopy are reviewed, including transmission geometry, source experiments, detection of conversion electrons, and backscattering geometry. Studies of technologically important materials are presented such as oxides, alloys, phosphates, fluorides, nitrides, steels, and diamonds.

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Preface. I: Chemistry, Mineralogy and Metallurgy. Structure and Properties of Tin-Doped Metal Oxides; F.J. Berry, et al. The Kinetics of the Phase Transition in Ferrosilicon System; Ö. Helgason, et al. Fluoride-Ion Conductors Derived from the Fluorite Type; G. Dénès, et al. The Ba1-xSnxCl1+yF1-y Solid Solution; A. Muntasar, G. Dénès. The Mechanism of beta-Fe2O3 Formation by Solid-State Reaction between NaCl and Fe2(SO4)3; R. Zboril, et al. Mössbauer Measurements of Solid Solutions (FexCr1-x)2O3, 0 Spectrometry Applied to Iron-Based Nanocrystalline Alloys I; J.-M. Grenèche, M. Miglierini. Mössbauer Spectrometry Applied to Iron-Based Nanocrystalline Alloys II; M. Miglierini, J.-M. Grenèche. Radiation Damage of Nanocrystalline Materials; J. Sitek, J. Degmová. Disordered Nanocrystalline Fe-Sn Alloys; E.P. Yelsukov, et al. Iron Nanoparticles in X and Y Zeolites Prepared by Reduction with NaN3; K. Lázár, et al. Quasielastic Mössbauer Scattering in Stable Icosahedral AI-Cu-Fe Quasicrystals; R.A. Brand, et al. IV: Experimental Techniques and Data Processing. Quasi-Elastic Processes Studied by Methods Sensitive to the Momentum and Energy Transfer; K. Ruebenbauer. Synchrotron Mössbauer Reflectometry in Materials Science; D.L. Nagy, et al. Site Preference of57Co in Fe-Si Alloys after Grain Boundary Diffusion; O. Schneeweiss, et al. High Pressure Mössbauer Spectroscopy; M.P. Pasternak, R.D. Taylor. The Challenge of an Automatic Mössbauer Analysis; P.A. de Souza Jr., V.J. Garg. Evaluation of Experimental Data: Lineshape and Goodness of Fit; G. Pedrazzi, et al. CONFIT for WINDOWS® 95; T. Žák. YAP:Ce Scintillation Detector for Transmission Mössbauer Spectroscopy; M. Mašhláň, et al. The Mössbauer Spectrometer as a Virtual Instrument; M. Mašhláň, et al. Calib

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