Quantitative Magnetic Resonance Imaging is a ‘go-to’ reference for methods and applications of quantitative magnetic resonance imaging, with specific sections on Relaxometry, Perfusion, and Diffusion. Each section will start with an explanation of the basic techniques for mapping the tissue property in question, including a description of the challenges that arise when using these basic approaches. For properties which can be measured in multiple ways, each of these basic methods will be described in separate chapters. Following the basics, a chapter in each section presents more advanced and recently proposed techniques for quantitative tissue property mapping, with a concluding chapter on clinical applications.
The reader will learn:
1. Section: Introduction - p. page_xxvii 2. Quantitative MRI: Rationale and Challenges - p. page_xxxvii 3. MRI Biomarkers - p. page_liii 4. Section 1: Relaxometry - p. page_lxxxvi 5. Chapter 1: Biophysical and Physiological Principles of T1 and T2 - p. page_3 6. Chapter 2: Quantitative T1 and T1ρ Mapping - p. page_19 7. Chapter 3: Quantitative T2 and T2* Mapping - p. page_47 8. Chapter 4: Multiproperty Mapping Methods - p. page_65 9. Chapter 5: Specialized Mapping Methods in the Heart - p. page_91 10. Chapter 6: Advances in Signal Processing for Relaxometry - p. page_123 11. Chapter 7: Relaxometry: Applications in the Brain - p. page_149 12. Chapter 8: Relaxometry: Applications in Musculoskeletal Systems - p. page_185 13. Chapter 9: Relaxometry: Applications in the Body - p. page_215 14. Chapter 10: Relaxometry: Applications in the Heart - p. page_239 15. Section 2: Perfusion and Permeability - p. page_265 16. Chapter 11: Physical and Physiological Principles of Perfusion and Permeability - p. page_269 17. Chapter 12: Arterial Spin Labeling MRI: Basic Physics, Pulse Sequences, and Modeling - p. page_295 18. Chapter 13: Dynamic Contrast-Enhanced MRI: Basic Physics, Pulse Sequences, and Modeling - p. page_321 19. Chapter 14: Dynamic Susceptibility Contrast MRI: Basic Physics, Pulse Sequences, and Modeling - p. page_345 20. Chapter 15: Applications of Quantitative Perfusion and Permeability in the Brain - p. page_369 21. Chapter 16: Applications of Quantitative Perfusion and Permeability in the Liver - p. page_405 22. Chapter 17: Applications of Quantitative Perfusion and Permeability in the Body - p. page_427 23. Section 3: Diffusion - p. page_454 24. Chapter 18: Physical and Physiological Principles of Diffusion - p. page_457 25. Chapter 19: Acquisition of Diffusion MRI Data - p. page_477 26. Chapter 20: Modeling Fiber Orientations Using Diffusion MRI - p. page_509 27. Chapter 21: Diffusion MRI Fiber Tractography - p. page_533 28. Chapter 22: Measuring Microstructural Features Using Diffusion MRI - p. page_571 29. Chapter 23: Diffusion MRI: Applications in the Brain - p. page_605 30. Chapter 24: Diffusion MRI: Applications Outside the Brain - p. page_637 31. Section 4: Fat and Iron Quantification - p. page_663 32. Chapter 25: Physical and Physiological Properties of Fat - p. page_667 33. Chapter 26: Physical and Physiological Properties of Iron - p. page_681 34. Chapter 27: Fat Quantification Techniques - p. page_695 35. Chapter 28: Applications of Fat Mapping - p. page_735 36. Chapter 29: Iron Mapping Techniques and Applications - p. page_779 37. Section 5: Quantification of Other MRI-Accessible Tissue Properties - p. page_803 38. Chapter 30: Electrical Properties Mapping - p. page_807 39. Chapter 31: Quantitative Susceptibility Mapping - p. page_819 40. Chapter 32: Magnetization Transfer - p. page_839 41. Chapter 33: Chemical Exchange Mapping - p. page_857 42. Chapter 34: MR Thermometry - p. page_885 43. Chapter 35: Motion Encoded MRI and Elastography - p. page_907 44. Chapter 36: Flow Quantification with MRI - p. page_931 45. Chapter 37: Hyperpolarized Magnetic Resonance Spectroscopy and Imaging - p. page_953 46. Index - p. page_979
Quantitative Magnetic Resonance Imaging is a ‘go-to’ reference for methods and applications of quantitative magnetic resonance imaging, with specific sections on Relaxometry, Perfusion, and Diffusion. Each section will start with an explanation of the basic techniques for mapping the tissue property in question, including a description of the challenges that arise when using these basic approaches. For properties which can be measured in multiple ways, each of these basic methods will be described in separate chapters. Following the basics, a chapter in each section presents more advanced and recently proposed techniques for quantitative tissue property mapping, with a concluding chapter on clinical applications.
The reader will learn:
1. Section: Introduction - p. page_xxvii 2. Quantitative MRI: Rationale and Challenges - p. page_xxxvii 3. MRI Biomarkers - p. page_liii 4. Section 1: Relaxometry - p. page_lxxxvi 5. Chapter 1: Biophysical and Physiological Principles of T1 and T2 - p. page_3 6. Chapter 2: Quantitative T1 and T1ρ Mapping - p. page_19 7. Chapter 3: Quantitative T2 and T2* Mapping - p. page_47 8. Chapter 4: Multiproperty Mapping Methods - p. page_65 9. Chapter 5: Specialized Mapping Methods in the Heart - p. page_91 10. Chapter 6: Advances in Signal Processing for Relaxometry - p. page_123 11. Chapter 7: Relaxometry: Applications in the Brain - p. page_149 12. Chapter 8: Relaxometry: Applications in Musculoskeletal Systems - p. page_185 13. Chapter 9: Relaxometry: Applications in the Body - p. page_215 14. Chapter 10: Relaxometry: Applications in the Heart - p. page_239 15. Section 2: Perfusion and Permeability - p. page_265 16. Chapter 11: Physical and Physiological Principles of Perfusion and Permeability - p. page_269 17. Chapter 12: Arterial Spin Labeling MRI: Basic Physics, Pulse Sequences, and Modeling - p. page_295 18. Chapter 13: Dynamic Contrast-Enhanced MRI: Basic Physics, Pulse Sequences, and Modeling - p. page_321 19. Chapter 14: Dynamic Susceptibility Contrast MRI: Basic Physics, Pulse Sequences, and Modeling - p. page_345 20. Chapter 15: Applications of Quantitative Perfusion and Permeability in the Brain - p. page_369 21. Chapter 16: Applications of Quantitative Perfusion and Permeability in the Liver - p. page_405 22. Chapter 17: Applications of Quantitative Perfusion and Permeability in the Body - p. page_427 23. Section 3: Diffusion - p. page_454 24. Chapter 18: Physical and Physiological Principles of Diffusion - p. page_457 25. Chapter 19: Acquisition of Diffusion MRI Data - p. page_477 26. Chapter 20: Modeling Fiber Orientations Using Diffusion MRI - p. page_509 27. Chapter 21: Diffusion MRI Fiber Tractography - p. page_533 28. Chapter 22: Measuring Microstructural Features Using Diffusion MRI - p. page_571 29. Chapter 23: Diffusion MRI: Applications in the Brain - p. page_605 30. Chapter 24: Diffusion MRI: Applications Outside the Brain - p. page_637 31. Section 4: Fat and Iron Quantification - p. page_663 32. Chapter 25: Physical and Physiological Properties of Fat - p. page_667 33. Chapter 26: Physical and Physiological Properties of Iron - p. page_681 34. Chapter 27: Fat Quantification Techniques - p. page_695 35. Chapter 28: Applications of Fat Mapping - p. page_735 36. Chapter 29: Iron Mapping Techniques and Applications - p. page_779 37. Section 5: Quantification of Other MRI-Accessible Tissue Properties - p. page_803 38. Chapter 30: Electrical Properties Mapping - p. page_807 39. Chapter 31: Quantitative Susceptibility Mapping - p. page_819 40. Chapter 32: Magnetization Transfer - p. page_839 41. Chapter 33: Chemical Exchange Mapping - p. page_857 42. Chapter 34: MR Thermometry - p. page_885 43. Chapter 35: Motion Encoded MRI and Elastography - p. page_907 44. Chapter 36: Flow Quantification with MRI - p. page_931 45. Chapter 37: Hyperpolarized Magnetic Resonance Spectroscopy and Imaging - p. page_953 46. Index - p. page_979
