Advances in Magnetic Resonance

Contributors

Preface

Contents of Previous Volumes

Tentative Contents of Future Volumes

Correlation Functions for Molecular Motion

I. Introduction

II. Correlation Functions in Spectroscopy

III. Calculations of Correlation Functions in Molecular Gases

Time Correlation Functions in Nuclear Magnetic Relaxation

I. Introduction

II. Outline of the Development

III. The Macroscopic Transport Equations

IV. Linear Relaxation Theory from the Point of View of Brownian Motion

V. Correlation Functions and Onsager's Assumption

VI. The Linear Response Theory

VII. The Time Correlation Function Formulas

VIII. Application

Appendix. The Behavior of Correlation Functions on the Macroscopic Time Scale

Dynamic Nuclear Polarization in Liquids

I. Introduction

II. Theory

III. Experimental Technique

IV. Experimental Results

Magnetic Resonance in Hydrogen-Bonded Ferroelectrics

I. Introduction

II. Deuteron Magnetic Resonance (DMR)

III. Proton Magnetic Resonance

IV. Deuteron and Proton Resonance of Ferroelectric Ammonium Salts

V. Resonance of Nuclei Other than H or D

VI. Electron Paramagnetic Resonance in H-Bonded Ferroelectrics

Appendix. Some Ferroelectric and Antiferroelectric Compounds Investigated by NMR

Thermodynamics of Spin Systems in Solids

I. Introduction

II. Spin Hamiltonians, Energy Levels

III. Spin Systems in Quasi-Equilibrium

IV. Spin-Lattice Relaxation

V. The Effects of a Weak RF Irradiation (Large Single Spin Hamiltonians)

VI. "Adiabatic" Processes. Cross-Relaxation

VII. "Sudden" Processes. Pulse Techniques

Author Index

Subject Index