Handlich, übersichtlich und umfassend: Dieses Buch deckt die theoretischen und methodischen Prinzipien der Festkörper-NMR ab und demonstriert ihre Anwendungen an zahlreichen Beispielen (Biomaterialien, Polymere, anorganische Stoffe). Abgerundet wird der zum Lernen und Nachschlagen geeignete Text durch Fachworterklärungen, Zusammenfassungen an den Kapitelenden und ein ausführliches Literaturverzeichnis.
Handlich, übersichtlich und umfassend: Dieses Buch deckt die theoretischen und methodischen Prinzipien der Festkörper-NMR ab und demonstriert ihre Anwendungen an zahlreichen Beispielen (Biomaterialien, Polymere, anorganische Stoffe). Abgerundet wird der zum Lernen und Nachschlagen geeignete Text durch Fachworterklärungen, Zusammenfassungen an den Kapitelenden und ein ausführliches Literaturverzeichnis.
Marco Geppi graduated in chemistry at the Scuola Normale Superiore of Pisa on the topic "Study of polymeric materials by means of solid state NMR". His further research activities brought him to Italian CNR (Dr. C. Forte), and the University of Durham, UK (Prof. R.K. Harris). Since 2001 he is researcher and lecturer in Physical Chemistry at the Department of Chemistry and Industrial Chemistry of the University of Pisa, where he leads the Solid-State NMR group. Klaus Müller graduated in Chemistry at the University of Freiburg. After completion of the PhD thesis in physical chemistry at the University of Stuttgart, he went for a postdoctoral stay to the Weizmann Institute of Science, Rehovot/Israel (Dept. of Chemical Physics). He returned to the University of Stuttgart, and - upon completing his habilitation - became professor in Physical Chemistry. His main research activities were applications of solid-state NMR techniques for the characterization of different types of materials. Unexpectedly, he died in April 2011.
2. Mathematical and Quantum-Mechanical Tools 2.1 Definitions and basic concepts 2.2 Rotations and frame transformations 2.3 Time-independent features: energy levels and related aspects 2.4 Dealing with time-dependence
3. Nuclear Spin Interactions 3.1 Introduction 3.2 Interaction with external magnetic fields 3.3 Internal Interactions
6. 2D solid-state NMR Spectroscopy 6.1 Basic concepts 6.2 Experiments based on chemical shift anisotropy 6.3 Experiments based on heteronuclear dipolar coupling 6.4 Experiments based on homonuclear dipolar coupling 6.5 Experiments based on J-coupling 6.6 Experiments based on quadrupolar interaction
7. Molecular dynamics by solid state NMR 7.1 Experimental observables 7.2 Motional models 7.3 Broadline experiments 7.4 High resolution experiments
8. Application of SSNMR to selected classes of systems 8.1 Pharmaceuticals 8.2 Polymeric materials 8.3 Inorganic and organic-inorganic materials 8.4 Liquid crystals and model membranes
2. Mathematical and Quantum-Mechanical Tools 2.1 Definitions and basic concepts 2.2 Rotations and frame transformations 2.3 Time-independent features: energy levels and related aspects 2.4 Dealing with time-dependence
3. Nuclear Spin Interactions 3.1 Introduction 3.2 Interaction with external magnetic fields 3.3 Internal Interactions
6. 2D solid-state NMR Spectroscopy 6.1 Basic concepts 6.2 Experiments based on chemical shift anisotropy 6.3 Experiments based on heteronuclear dipolar coupling 6.4 Experiments based on homonuclear dipolar coupling 6.5 Experiments based on J-coupling 6.6 Experiments based on quadrupolar interaction
7. Molecular dynamics by solid state NMR 7.1 Experimental observables 7.2 Motional models 7.3 Broadline experiments 7.4 High resolution experiments
8. Application of SSNMR to selected classes of systems 8.1 Pharmaceuticals 8.2 Polymeric materials 8.3 Inorganic and organic-inorganic materials 8.4 Liquid crystals and model membranes
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