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Radiation Oncology Advances: An Introduction | p. 1 |
Advances in Imaging and Theragnostic Radiation Oncology | p. 1 |
Advances in Molecular Biology and Targeted Therapies | p. 2 |
Advances in Treatment Delivery and Planning | p. 3 |
Clinical Advances | p. 4 |
References | p. 4 |
Advances in Imaging and Biologically-Based Treatment Planning | |
Advanced Image-Guided External Beam Radiotherapy | p. 7 |
Introduction | p. 7 |
Image Guidance for Defining Target Volumes | p. 9 |
Image Guidance at the Time of Delivery | p. 13 |
Optical Guidance | p. 14 |
Optical Tracking Systems | p. 15 |
Optical Tracking in Fractionated Stereotactic Radiotherapy, Intracranial, and Head and Neck IMRT | p. 16 |
Optically Guided Ultrasound | p. 18 |
In-Room CT Guidance | p. 20 |
Image Guidance and Organ Motion | p. 27 |
Image Guidance for Follow-Up Imaging and Retreatments | p. 29 |
Summary | p. 31 |
References | p. 32 |
Does Painting and Theragnostic Imaging: Towards the Prescription, Planning and Delivery of Biologically Targeted Dose Distributions in External Beam Radiation Oncology | p. 41 |
Radiation Theragnostics | p. 41 |
From Anatomical to Biological Targeting in Radiation Therapy | p. 42 |
From Target Selection and Delineation to 4D Dose Prescription | p. 43 |
The Case for Nonuniform Theragnostic Dose Distributions | p. 44 |
Precision Requirements | p. 47 |
Targeting Hypoxia Using EBRT: Are We Ready for Dose Painting by Numbers? | p. 48 |
Painting by Numbers? | p. 48 |
Hypoxia as a Cause of Clinical Failure of Radiation Therapy | p. 48 |
Hypoxia Imaging | p. 50 |
Spatiotemporal Stability of the PET Hypoxia Map | p. 53 |
Dose Painting by Numbers | p. 56 |
Dose Delivery and Expected Change in Outcome | p. 57 |
Conclusion | p. 57 |
References | p. 58 |
Molecular and Functional Imaging in Radiation Oncology | p. 63 |
Introduction | p. 63 |
Molecular and Functional Imaging Modalities | p. 64 |
Positron Emission Tomography | p. 64 |
Single Photon Emission Tomography | p. 65 |
Dynamic Contrast Enhanced Computer Tomography (DCE-CT) | p. 65 |
Dynamic Contrast Enhanced Magnetic Resonance Imaging (DCE-MRI) | p. 65 |
Imaging (DCE-MRI) | p. 65 |
Magnetic Resonance Spectroscopy | p. 66 |
Optical Imaging | p. 66 |
Comparison Between Different Imaging Modalities | p. 66 |
Molecular and Functional Imaging Targets | p. 67 |
Cellular Metabolism | p. 68 |
Cellular Proliferation | p. 72 |
Cellular Death | p. 73 |
Cellular Regulation | p. 74 |
Tumor Microenvironment | p. 77 |
Future | p. 80 |
References | p. 82 |
Prognostic and Predictive Markers in Radiation Therapy: Focus on Prostate Cancer | p. 97 |
Introduction | p. 97 |
The Need for Biomarkers of Radiation Response in Prostate Cancer | p. 97 |
Optimal Biomarkers and Patient Cohort Characteristics | p. 98 |
Evaluation of Candidate Markers | p. 99 |
Biological Rationale | p. 99 |
Biomarker Frequency | p. 102 |
Biomarker Assessment Methods | p. 102 |
Immunohistochemistry | p. 103 |
Clinical Correlative Data in Prostate Cancer | p. 104 |
Markers of Cell Cycle Control, DNA Repair and Apoptosis | p. 105 |
Proliferation | p. 105 |
Hypoxia | p. 106 |
Limitations of Existing Studies | p. 106 |
Future Studies and Directions | p. 107 |
Large Prospective Clinical Trials | p. 107 |
Biomarker-Based Adaptive Therapy | p. 108 |
Conclusion | p. 109 |
References | p. 109 |
Advances in Molecular Biology and Targeted Therapies | |
Overview of Cancer Molecular Radiobiology | p. 117 |
Introduction | p. 117 |
Interaction of Radiation with Living Cells | p. 117 |
Cellular Response to Ionizing Radiation | p. 118 |
Cell Cycle Arrest | p. 118 |
DNA Repair | p. 120 |
Apoptosis | p. 121 |
Cell Survival Signaling | p. 122 |
Ras Signaling | p. 122 |
Receptor Tyrosine Kinases | p. 123 |
mTOR Signaling | p. 123 |
Targeting Housekeeping Proteins | p. 124 |
HSP90 Inhibitors | p. 125 |
HDAC Inhibitors | p. 126 |
Proteosome Inhibitors | p. 128 |
Conclusion | p. 129 |
References | p. 130 |
Clinical Application of EGFR Inhibitors in Head and Neck Squamous Cell Cencer | p. 135 |
Introduction | p. 135 |
EGFR Biology | p. 136 |
Anti-EGFR Monoclonal Antibodies | p. 138 |
Radiation Plus Cetuximab For Locoregionally Advanced HNSCC | p. 138 |
Cetuximab, Cisplatin, and Radiation in Locoregionally Advanced HNSCC | p. 140 |
Cetuximab ± Chemotherapy in Recurrent and/or Metastatic HNSCC | p. 141 |
Cetuximab with Chemotherapy in the First-Line Treatment of Patients with Recurrent and/or Metastatic HNSCC | p. 142 |
EGFR Tyrosine Kinase Inhibitors (TKIs) | p. 143 |
TKI Monotherapy in HNSCC | p. 144 |
TKIs in Combination with Radiation Therapy | p. 144 |
TKIs with Dual Specificity | p. 145 |
Patient Selection | p. 145 |
Conclusions | p. 146 |
References | p. 147 |
Advancement of Antiangiogenic and Vascular Disrupting Agents Combined with Radiation | p. 153 |
Introduction | p. 153 |
Tumor Vasculature | p. 153 |
Targeting the Tumor Vasculature | p. 155 |
Antiangiogenic Agents | p. 155 |
Vascular Disrupting Agents | p. 158 |
Combining Antiangiogenic and Vascular Disrupting Agents with Radiation | p. 160 |
Antiangiogenic Agents and Radiation in the Laboratory | p. 160 |
Angiogenesis Inhibitors and Radiation in the Clinic | p. 162 |
Vascular Disrupting Agents and Radiation in the Laboratory | p. 163 |
Vascular Disrupting Agents with Radiation in the Clinic | p. 164 |
Future Directions | p. 165 |
Conclusion | p. 166 |
References | p. 167 |
Overcoming Therapeutic Resistance in Malignant Gliomas: Current Practices and Future Directions | p. 173 |
Introduction | p. 173 |
Signal Transduction Pathways Involved in Treatment Resistance | p. 173 |
Angiogenesis Pathways | p. 175 |
Conventional Chemotherapeutic Agents in Malignant Gliomas | p. 177 |
Biotherapeutic Strategies | p. 182 |
Antiepidermal Growth Factor Receptor (EGFR) Strategies | p. 182 |
mTor Pathway Inhibition: CCI-779 | p. 184 |
Antiangiogenic Strategies | p. 185 |
Summary | p. 186 |
References | p. 186 |
Advances in Treatment Delivery and Planning | |
Advances in Intensity-Modulated Radiotherapy Delivery | p. 193 |
Introduction | p. 193 |
Background | p. 193 |
Fixed-Field IMRT | p. 194 |
Direct Aperture Optimisation and Jaws-Only Linear Accelerator IMRT | p. 199 |
Tomotherapy | p. 199 |
Axial Tomotherapy | p. 200 |
Helical Tomotherapy | p. 201 |
Future Developments | p. 206 |
CyberKnife | p. 208 |
Summary | p. 209 |
References | p. 210 |
Image-Based Modeling of Normal Tissue Complication Probability for Radiation Therapy | p. 215 |
Introduction | p. 215 |
NTCP Models: Tools or Toys? | p. 216 |
Why Image-Based NTCP Analysis? | p. 218 |
Tissue Dose-Response Classification | p. 219 |
The Concepts of "Serial" and "Parallel" Tissue Dose-Response | p. 219 |
Local vs. Global Organ Injuries | p. 221 |
NTCP Models | p. 222 |
The Generalized Equivalent Uniform Dose Equation | p. 223 |
Basic Mathematical Features of Common NTCP Functions | p. 225 |
Cluster Models | p. 227 |
A Data-Mining/Data-Driven Approach to NTCP Modeling | p. 227 |
Selection of Relevant Input Variables | p. 231 |
Selection of Model Functional Form | p. 232 |
Selection of Model Order | p. 233 |
Model Order Based on Information Theory | p. 233 |
Model Order Based on Cross-validation Methods | p. 235 |
Model Variable Stability | p. 235 |
Model Parameter Fitting | p. 235 |
Image-Based Factors and Radiosensitivity Predictors | p. 236 |
Some Critical NTCP Endpoints | p. 237 |
Late Rectal Toxicity Due to External Beam Prostate Cancer Treatment | p. 237 |
Radiation Pneumonitis Due to Thoracic Irradiation for Lung Cancer | p. 238 |
Xerostomia Due to Head and Neck Cancer Treatment | p. 240 |
Drawbacks to Treatment Planning Based on Dose-Volume Limits | p. 243 |
Uncertainties in NTCP Models | p. 244 |
Incorporating Fractionation Sensitivity | p. 245 |
Summary | p. 248 |
References | p. 248 |
Optimization of Radiotherapy Using Biological Parameters | p. 257 |
Introduction | p. 257 |
The Need for Optimization Based on Biological Parameters | p. 259 |
Radiobiological Models | p. 260 |
Biological Optimization | p. 264 |
Subvolume-Based Radiobiological Models | p. 264 |
Impact of Diagnostic Accuracy on Biological Optimization | p. 270 |
Functional Imaging in Oncology | p. 270 |
Theragnostic Imaging in Risk-Adaptive Radiotherapy | p. 270 |
The Impact of Imaging Sensitivity on Risk-Adaptive Radiotherapy | p. 271 |
Clinical Parameters Necessary for Biological Optimization | p. 272 |
Summary | p. 274 |
References | p. 275 |
Clinical Advances | |
Combined Chemoradiotherapy Advances | p. 281 |
Introduction | p. 281 |
Head and Neck Cancers | p. 282 |
Nonsmall Cell Lung Carcinoma | p. 288 |
Cervical Carcinoma | p. 292 |
Esophageal Carcinoma | p. 294 |
Rectal Adenocarcinoma | p. 296 |
Anal Squamous Cell Carcinoma | p. 298 |
Muscle Invasive Bladder Cancer | p. 299 |
Conclusion | p. 300 |
References | p. 300 |
Cytoprotection for Radiation-Associated Normal Tissue Injury | p. 307 |
Biologic Rationale of Cytoprotectors | p. 307 |
Assessment of Amifostine in Patients with Head and Neck Cancer | p. 309 |
Assessment of Amifostine in Patients with Thoracic Tumors | p. 309 |
Lung Injury | p. 309 |
Esophageal Injury | p. 312 |
Assessment of Amifostine in Patients with Pelvic Tumors | p. 312 |
Assessment of Amifostine in Patients with Tumors at Other Sites | p. 312 |
Impact of Amifostine on Tumor Control and Survival | p. 314 |
Amifostine-Related Toxicity | p. 314 |
Administration of Amifostine | p. 314 |
Other Cytoprotectors | p. 321 |
Conclusion | p. 323 |
References | p. 323 |
Index | p. 329 |
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The Used, Rental and eBook copies of this book are not guaranteed to include any supplemental materials. Typically, only the book itself is included. This is true even if the title states it includes any access cards, study guides, lab manuals, CDs, etc.