Annual Reports on NMR Spectroscopy series, highlights new advances in the field, with this new volume presenting interesting chapters. Each chapter is written by an international board of authors.
Magnetic resonance now has a history exceeding 70 years. Not only has the range of applications of magnetic resonance-based techniques grown exponentially but so too has the literature. Consequently, a distillation and synthesis of the literature is in itself an extremely important research tool, providing an efficient means to take newcomers to the research frontiers and keeping experienced researchers aware of contemporary practice. Since 1968 Annual Reports on NMR Spectroscopy been at the vanguard of reviewing the magnetic resonance literature. Annual Reports on NMR Spectroscopy covers magnetic resonance in all its forms, including theory, experiment, applications, and interconnections with other techniques. It also provides the opportunity to make coherent aspects of magnetic resonance that were scattered and opaque. Historical articles including obituaries are also welcomed.
Potential authors are encouraged to consult with the Serial Editor.
William S. Price
Western Sydney University, NSW, Australia
[email protected]
1. 1 Introduction - p. 2 2. 2 The NMR spectroscopy system: Structure and electronics - p. 3 3. 3 Understanding noise in nuclear magnetic resonance spectroscopy systems - p. 16 4. 4 Electromagnetic model of the probe - p. 27 5. 5 Noise model of the receiving chain - p. 34 6. 6 Spectrometer noise figure determination - p. 42 7. 7 Experimental verification of the developed noise model - p. 52 8. 8 Conclusion - p. 60 9. Acknowledgements - p. 61 10. References - p. 61 11. Chapter Two: Self-diffusion and molecular association in binary liquid systems: NMR experiment, MD simulation and associative equilibria model - p. 65 12. Abstract - p. 66 13. 1 Introduction - p. 66 14. 2 Self-diffusion and molecular association of components in a binary system - p. 74 15. 3 Self-diffusion in the inert (or active) component – inert component systems - p. 80 16. 4 Self-diffusion in the self-associated component (methanol) – inert component (carbon tetrachloride) system - p. 82 17. 5 Self-diffusion in the active component (acetone) – active component (chloroform) system - p. 87 18. 6 Self-diffusion in the self-associated component (methanol) – active component (chloroform) system - p. 91 19. 7 Self-diffusion in the self-associated component (methanol) – self-associated component (ethanol) system - p. 96 20. 8 Conclusions - p. 102 21. References - p. 103
Annual Reports on NMR Spectroscopy series, highlights new advances in the field, with this new volume presenting interesting chapters. Each chapter is written by an international board of authors.
Magnetic resonance now has a history exceeding 70 years. Not only has the range of applications of magnetic resonance-based techniques grown exponentially but so too has the literature. Consequently, a distillation and synthesis of the literature is in itself an extremely important research tool, providing an efficient means to take newcomers to the research frontiers and keeping experienced researchers aware of contemporary practice. Since 1968 Annual Reports on NMR Spectroscopy been at the vanguard of reviewing the magnetic resonance literature. Annual Reports on NMR Spectroscopy covers magnetic resonance in all its forms, including theory, experiment, applications, and interconnections with other techniques. It also provides the opportunity to make coherent aspects of magnetic resonance that were scattered and opaque. Historical articles including obituaries are also welcomed.
Potential authors are encouraged to consult with the Serial Editor.
William S. Price
Western Sydney University, NSW, Australia
[email protected]
1. 1 Introduction - p. 2 2. 2 The NMR spectroscopy system: Structure and electronics - p. 3 3. 3 Understanding noise in nuclear magnetic resonance spectroscopy systems - p. 16 4. 4 Electromagnetic model of the probe - p. 27 5. 5 Noise model of the receiving chain - p. 34 6. 6 Spectrometer noise figure determination - p. 42 7. 7 Experimental verification of the developed noise model - p. 52 8. 8 Conclusion - p. 60 9. Acknowledgements - p. 61 10. References - p. 61 11. Chapter Two: Self-diffusion and molecular association in binary liquid systems: NMR experiment, MD simulation and associative equilibria model - p. 65 12. Abstract - p. 66 13. 1 Introduction - p. 66 14. 2 Self-diffusion and molecular association of components in a binary system - p. 74 15. 3 Self-diffusion in the inert (or active) component – inert component systems - p. 80 16. 4 Self-diffusion in the self-associated component (methanol) – inert component (carbon tetrachloride) system - p. 82 17. 5 Self-diffusion in the active component (acetone) – active component (chloroform) system - p. 87 18. 6 Self-diffusion in the self-associated component (methanol) – active component (chloroform) system - p. 91 19. 7 Self-diffusion in the self-associated component (methanol) – self-associated component (ethanol) system - p. 96 20. 8 Conclusions - p. 102 21. References - p. 103
