http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
New edition explores contemporary MRI principles and practices Thoroughly revised, updated and expanded, the second edition of Magnetic Resonance Imaging: Physical Principles and Sequence Design remains the preeminent text in its field. Using consistent nomenclature and mathematical notations throughout all the chapters, this new edition carefully explains the physical principles of magnetic resonance imaging design and implementation. In addition, detailed figures and MR images enable readers to better grasp core concepts, methods, and applications. Magnetic Resonance Imaging, Second Edition.
Title page; Copyright page; Foreword to the Second Edition; Foreword to the First Edition; Dedication; Preface to the Second Edition; Preface to the First Edition; Acknowledgments; Acknowledgments to the First Edition; Chapter 1: Magnetic Resonance Imaging; 1.1 Magnetic Resonance Imaging: The Name; 1.2 The Origin of Magnetic Resonance Imaging; 1.3 A Brief Overview of MRI Concepts; Chapter 2: Classical Response of a Single Nucleus to a Magnetic Field; 2.1 Magnetic Moment in the Presence of a Magnetic Field
2.2 Magnetic Moment with Spin: Equation of Motion2.3 Precession Solution: Phase; Chapter 3: Rotating Reference Frames and Resonance; 3.1 Rotating Reference Frames; 3.2 The Rotating Frame for an RF Field; 3.3 Resonance Condition and the RF Pulse; Chapter 4: Magnetization, Relaxation, and the Bloch Equation; 4.1 Magnetization Vector; 4.2 Spin-Lattice Interaction and Regrowth Solution; 4.3 Spin-Spin Interaction and Transverse Decay; 4.4 Bloch Equation and Static-Field Solutions; 4.5 The Combination of Static and RF Fields
Chapter 5: The Quantum Mechanical Basis of Precession and Excitation5.1 Discrete Angular Momentum and Energy; 5.2 Quantum Operators and the SchrÃ¶dinger Equation; 5.3 Quantum Derivation of Precession; 5.4 Quantum Derivation of RF Spin Tipping; Chapter 6: The Quantum Mechanical Basis of Thermal Equilibrium and Longitudinal Relaxation; 6.1 Boltzmann Equilibrium Values; 6.2 Quantum Basis of Longitudinal Relaxation; 6.3 The RF Field; Chapter 7: Signal Detection Concepts; 7.1 Faraday Induction; 7.2 The MRI Signal and the Principle of Reciprocity
7.3 Signal from Precessing Magnetization7.4 Dependence on System Parameters; Chapter 8: Introductory Signal Acquisition Methods; 8.1 Free Induction Decay and T2*; 8.2 The Spin Echo and T2 Measurements; 8.3 Repeated RF Pulse Structures; 8.4 Inversion Recovery and T1 Measurements; 8.5 Spectroscopy and Chemical Shift; Chapter 9: One-Dimensional Fourier Imaging, k-Space, and Gradient Echoes; 9.1 Signal and Effective Spin Density; 9.2 Frequency Encoding and the Fourier Transform; 9.3 Simple Two-Spin Example; 9.4 Gradient Echo and k-Space Diagrams
9.5 Gradient Directionality and NonlinearityChapter 10: Multi-Dimensional Fourier Imaging and Slice Excitation; 10.1 Imaging in More Dimensions; 10.2 Slice Selection with Boxcar Excitations; 10.3 2D Imaging and k-Space; 10.4 3D Volume Imaging; 10.5 Chemical Shift Imaging; Chapter 11: The Continuous and Discrete Fourier Transforms; 11.1 The Continuous Fourier Transform; 11.2 Continuous Transform Properties and Phase Imaging; 11.3 Fourier Transform Pairs; 11.4 The Discrete Fourier Transform; 11.5 Discrete Transform Properties
Robert W. Brown, Yu-Chung N. Cheng, E. Mark Haacke, Michael R. Thompson, Ramesh Venkatesan.
Preceded by Magnetic resonance imaging : physical principles and sequence design / E. Mark Haacke [and others]. c1999.
Includes bibliographical references and index.
Hoboken, New Jersey : John Wiley & Sons, Inc., [2014]
005F601A-BF14-433B-AA1F-97D5EFFA2CD6 OverDrive, Inc.