Advances in Magnetic and Optical Resonance

Advances in Magnetic and Optical Resonance, Volume 15 focuses on the quantitative mathematical treatments of the nuclear magnetic resonance (NMR).
This book discusses the iterative methods in the design of pulse sequences for NMR excitation; fixed point theory of iterative schemes; electron-nuclear polarization transfer in the nuclear rotating frame; and LF-and RF-DNP in doped polystyrene. The multipole NMR; solid state and solution NMR of non-classical transition metal polyhydrides; and dihydrogen complexes are also elaborated. This text likewise covers the quantum mechanical exchange in polyhydrides; low-frequency magnetic resonance with a dc SQUID and operating principles of the SQUID detector.
This publication is a good source for students and researchers concerned with the application of NMR.

Contenu

Preface
Iterative Methods in the Design of Pulse Sequences for NMR Excitation
I. Introduction
II. Coherent Averaging Theory of Iterative Schemes
III. Fixed Point Theory of Iterative Schemes
IV. Further Applications of the Fixed Point Theory
V. Conclusion
References
Electron-Nuclear Polarization Transfer in the Nuclear Rotating Frame
I. Introduction
II. Theory
III. LF-and RF-DNP in Doped Polystyrene
IV. Applications of RF-DNP
V. Summary and Conclusions
References
Multipole NMR
I. Theory
II. Applications
III. Summary
References
Solid State and Solution NMR of Nonclassical Transition Metal Polyhydrides
I. Introduction
II. Dihydrogen Complexes
III. Quantum Mechanical Exchange in Polyhydrides
IV. Summary
References
Low-Frequency Magnetic Resonance with a dc Squid
I. Introduction
II. Longitudinal Magnetic Resonance
III. Operating Principles of the SQUID Detector
IV. Squid Spectrometer
V. NQR Results
VI. NMR Results
References
Index