Tissue Elasticity Imaging: Volume One: Theory and Methods offers an extensive treatment of the fundamentals and applications of this groundbreaking diagnostic modality. The book introduces elasticity imaging, its history, the fundamental physics, and the different elasticity imaging methods, along with their implementation details, problems and artefacts. It is an essential resource for all researchers and practitioners interested in any elasticity imaging modality. As many diseases, including cancers, alter tissue mechanical properties, it is not always possible for conventional methods to detect changes, but with elasticity images that are produced by slow tissue deformation or low-frequency vibration, these changes can be displayed.
1. Chapter 4. Introduction to quasi-static elastography - p. 61 2. Chapter 5. Acoustic radiation force and shear wave elastography techniques - p. 85 3. Chapter 6. Magnetic resonance elastography - p. 129 4. Chapter 7. Reconstructive elastography - p. 155 5. Chapter 8. Lateral and shear strain imaging for ultrasound elastography - p. 167 6. Chapter 9. Optical elastography on the microscale - p. 185 7. Index - p. 231
Tissue Elasticity Imaging: Volume One: Theory and Methods offers an extensive treatment of the fundamentals and applications of this groundbreaking diagnostic modality. The book introduces elasticity imaging, its history, the fundamental physics, and the different elasticity imaging methods, along with their implementation details, problems and artefacts. It is an essential resource for all researchers and practitioners interested in any elasticity imaging modality. As many diseases, including cancers, alter tissue mechanical properties, it is not always possible for conventional methods to detect changes, but with elasticity images that are produced by slow tissue deformation or low-frequency vibration, these changes can be displayed.
1. Chapter 4. Introduction to quasi-static elastography - p. 61 2. Chapter 5. Acoustic radiation force and shear wave elastography techniques - p. 85 3. Chapter 6. Magnetic resonance elastography - p. 129 4. Chapter 7. Reconstructive elastography - p. 155 5. Chapter 8. Lateral and shear strain imaging for ultrasound elastography - p. 167 6. Chapter 9. Optical elastography on the microscale - p. 185 7. Index - p. 231
