Buch, Englisch, 204 Seiten, Paperback, Format (B × H): 152 mm x 229 mm, Gewicht: 321 g
ISBN: 978-1-4684-8913-2
Verlag: Springer US
The initial impetus for this text occurred when we were searching for a single book that could be recommended to the attendees at the Mossbauer Spectroscopy Institute at The Catholic University of America. This Institute is an introductory course on the theory and interpretation of Mossbauer spectroscopy for workers in industrial, academic, and government labora tories. None of the books available adequately covered the breadth and scope of the lectures in the Institute. A list of these books and review articles is included in Appendix C. To meet our needs, we undertook the creation of this text. The chapters are based upon the lectures given at the various Institutes from 1967 to 1969. Most of the lectures were recorded and transcripts sent to the lecturers, who then prepared the manuscripts, using the transcripts as a guide so as to retain the style developed during the lecture. Each chapter is written in the style of the authors. As the editor, my main task was to main tain uniformity of format and nomenclature. A list of nomenclature used in this volume is reproduced in Appendix A. We hope that this list will be used particularly by new investigators and teachers of Mossbauer spectroscopy so that future literature will employ a uniform system.
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1 Introduction to the Mössbauer Effect.- 1. Pictorial Description.- 2. Background Concepts.- 3. The Mössbauer Effect.- 4. Theory.- 2 Instrumentation.- 1. Instrumentation.- 2. Accuracy and Precision.- 3. Experimental Techniques.- 4. Applications of Computers to Mössbauer Spectra.- 3 Nuclear Properties Determined from Mössbauer Measurements.- 1. A Phenomenological View of the Hyperfine Interactions.- 2. Differences in the Nuclear Charge Radius?R/R.- 3. Nuclear Quadrupole Moments Q and Spins I.- 4. Nuclear Magnetic Dipole Moments.- 5. Nuclear Lifetimes.- 6. Internal Conversion.- 7. Parity, Multipole Mixing, and Time Reversal.- 8. Nuclear Reactions and Devices.- 4 The Electric Field Gradient Tensor.- 1. The “Standard Form” EFG Tensor Due to a Single-Point Charge.- 2. The Ligand Contribution.- 3. The Valence Electron Contribution.- 4. Quadrupole Splittings.- 5. Potpourri.- 6. The Utility of EFG Information.- Appendix I.- Appendix II.- 5 Application to Solid-State Physics.- 1. Isomer Shift.- 2. Magnetic Hyperfine Structure.- 3. Electric Quadrupole Interaction.- 4. Lattice Dynamics.- 6 Application to Coordination Chemistry.- 1. Crystalline Structure.- 2. Complex Isomerism.- 3. Structure of Complicated Complex Compounds.- 4. Electronic Structure of Molecules.- 7 Application to Organometallic Compounds.- 1. Isomer Shifts.- 2. Quadrupole Splitting.- 3. Conformational Studies.- 4. Conclusion.- 8 Mössbauer Spectroscopy and Physical Metallurgy.- 1. Mössbauer Application to Physical Metallurgy.- 1. 2. Phase Transition in Stainless Steel.- 1. 3. Internal Oxidation Studies.- 1. 4. Magnetic Properties in Au-Fe Alloys.- 1. 5. Near-Neighbor Interaction in ?-Fe-Mo Alloys.- 1. 6. Near-Neighbor Interaction in Fe-C Alloys.- 1. 7. Order-Disorder in FeAl and Fc3Al.- 1. 8. Thin Filmsand Superparamagnetism.- 2. Physical Metallurgy Considerations Concerning the Mössbauer Effect.- 3. Summary.- 9 Application to Biochemical Systems.- 1. Hemoproteins.- 2. Experimental Conditions.- 3. Effect of Experimental Variables.- 4. Spin-Spin Equilibrium.- Appendix A Nomenclature of Mössbauer Spectroscopy.- Appendix B Bibliographic Sources.- Appendix C Selected References on Mössbauer Spectroscopy.
