Contributors | |
Foreword | |
Preface | |
Acknowledgments | |
General Introduction: History of Radiosurgery | p. 1 |
Technical Considerations, Radiation Physics, and Radiobiology | |
Radiation Physics for Radiosurgery | p. 7 |
Three-Dimensional Treatment Planning for Stereotactic Radiosurgery | p. 17 |
Dosimetry and Dose-Volume Relationships in Radiosurgery | p. 31 |
Radiation Injury in the Central Nervous System | p. 43 |
Animal Models in Radiosurgery | p. 51 |
Radiosurgical Systems | |
Linear Accelerators in Stereotactic Radiosurgery | p. 67 |
Gamma Knife Radiosurgery | p. 77 |
Heavy-Charged-Particle Radiosurgery: Rationale and Method | p. 87 |
A New Stereotactic Alignment System for Charged-Particle Radiosurgery at the Harvard Cyclotron Laboratory, Boston | p. 105 |
Clinical Results | |
Vascular Malformations | |
The Role of Stereotactic Radiosurgery in the Management of Brain Vascular Malformations | p. 111 |
Charged-Particle Radiosurgery | p. 122 |
Gamma Knife Stereotactic Radiosurgery for Cerebral Vascular Malformations | p. 136 |
LINAC Radiosurgery for Arteriovenous Malformations | p. 147 |
Particle-Beam Irradiation of the Pituitary Gland | p. 157 |
Pituitary Adenomas: Gamma Knife | p. 167 |
Skull Base Radiosurgery | p. 175 |
The Role of Radiosurgery in the Management of Pediatric Intracranial Lesions | p. 189 |
Radiosurgery for the Treatment of Intracranial Metastases | p. 197 |
Radiosurgery for Gliomas | p. 207 |
Special Indications: Radiosurgery for Functional Neurosurgery and Epilepsy | p. 221 |
Future Directions | |
Particle Beams | p. 229 |
The Future of Gamma Knife Stereotactic Radiosurgery | p. 235 |
Linear Accelerators | p. 243 |
Index | p. 249 |
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