List of Contributors | p. XIII |
Advances | |
Disorders of Consciousness: Anatomical and Physiological Mechanisms | |
Abstract | p. 3 |
Introduction | p. 4 |
The Wake-Sleep Cycle | p. 4 |
Phenomenology | p. 5 |
Regulation | p. 6 |
Wakefulness Network | p. 8 |
The Posterior Hypothalamus | p. 11 |
Histamine Network | p. 11 |
Orexin/Hypocretin Network | p. 12 |
Brainstem Acetylcholine and Amine Networks | p. 14 |
The Serotonin System | p. 15 |
Tentative Functions of the Wake System | p. 15 |
Effect of Sleep Deprivation on Cognitive Performances | p. 17 |
References | p. 18 |
Advances in Craniosynostosis Research and Management | |
Abstract | p. 24 |
Introduction | p. 24 |
Normal Craniofacial Embryology and Growth | p. 25 |
Aetiology, Pathogenesis and Function | p. 27 |
Classification and Diagnosis | p. 34 |
Evolution of Surgical Treatment | p. 35 |
Recent Advances | p. 39 |
Molecular Studies | p. 39 |
Imaging Techniques and Surgical Planning | p. 39 |
Resorbable Fixation | p. 40 |
Bone Substitutes and Tissue Engineering | p. 41 |
Distraction Osteogenesis and the Spring-Mediated Cranioplasties | p. 43 |
Resorbable Distractor Devices | p. 46 |
Minimally Invasive Surgery | p. 47 |
In Utero Surgery | p. 48 |
Surgical Techniques | p. 48 |
Sagittal Synostosis | p. 49 |
Unicoronal Synostosis | p. 50 |
Metopic Synostosis | p. 56 |
Unilambdoid Synostosis | p. 58 |
Bicoronal Synostosis | p. 60 |
Saethre-Chotzen Syndrome | p. 62 |
Crouzon and Pfeiffer Syndromes | p. 62 |
Apert Syndrome | p. 63 |
References | p. 66 |
Technical Standards | |
Preoperative Clinical Evaluation, Outline of Surgical Technique and Outcome in Temporal Lobe Epilepsy | |
Abstract | p. 88 |
Introduction | p. 89 |
Epidemiology of Temporal Lobe Epilepsy (TLE) | p. 89 |
Etiology and Pathology of TLE | p. 90 |
Temporal Lobe Seizure Symptomatology | p. 91 |
Mesial TLE | p. 92 |
Neocortical TLE | p. 92 |
Selection of Candidates for Preoperative Assessment | p. 92 |
Neuropsychological Evaluation in TLE | p. 93 |
WADA Test | p. 94 |
Magnetic Resonance Imaging (MRI) in TLE | p. 95 |
Volumetry | p. 96 |
NMR-Spectroscopy | p. 97 |
Lesions in MRI | p. 98 |
Functional MRI | p. 98 |
EEG-Videotelemetry in TLE | p. 101 |
Interictal EEG | p. 101 |
Diagnostic EEG-Videotelemetry | p. 101 |
Intracranial EEG-Monitoring in TLE | p. 102 |
Indications for Intracranial EEG | p. 102 |
Intracranial EEG-Recording in Videotelemetry | p. 102 |
Surgical Technique for Inserting the Electrodes | p. 103 |
Complications of Invasive EEG-Monitoring | p. 104 |
Functional Imaging in TLE | p. 106 |
Positron Emission Tomography, PET | p. 107 |
Single Photon Emission Computed Tomography, SPECT | p. 109 |
Magnetoencephalography, MEG | p. 110 |
Indications for Surgery in TLE | p. 111 |
Surgery in Patients with Temporal Lobe Lesions | p. 112 |
Technique of Tailored Temporal Lobe Resection with Amygdalo-Hippocampectomy | p. 113 |
Peroperative Electrocorticography | p. 117 |
Outcome of Surgery with Respect to Seizures | p. 119 |
Complications | p. 121 |
Conclusions | p. 123 |
Acknowledgement | p. 124 |
References | p. 124 |
Motor Evoked Potential Monitoring for Spinal Cord and Brain Stem Surgery | |
Abstract | p. 134 |
Introduction | p. 134 |
Intraoperative Neurophysiological Techniques | p. 135 |
The Past | p. 135 |
Historical Background on MEP Monitoring | p. 135 |
Misconceptions about MEP Monitoring | p. 137 |
The Present | p. 138 |
MEP Monitoring Techniques for Spinal Cord and Brainstem Procedures | p. 138 |
Transcranial Electrical Stimulation of the Motor Cortex and Muscle Recordings (Multipulse Technique) | p. 139 |
Transcranial Electrical Stimulation of the Motor Cortex and Epidural Recordings (Single Pulse Technique) | p. 140 |
Mapping of the Corticospinal Tract During Brainstem Procedures | p. 142 |
The "Future" | p. 143 |
Mapping of the Corticospinal Tract During Spinal Cord Procedures: The Collision Technique | p. 143 |
Monitoring of the Corticobulbar Tracts | p. 144 |
Clinical Application | p. 148 |
Correlation Between Intraoperative MEP Recordings and Post-Operative Motor Outcome | p. 148 |
How to Avoid Irreversible MEP Loss | p. 149 |
Warning Signals | p. 150 |
Corrective Measures for the Management of Deteriorating Signals | p. 152 |
Dose MEP Monitoring Really Make a Difference? | p. 153 |
Illustrative Cases | p. 153 |
Conclusions | p. 161 |
References | p. 165 |
Acknowledgments | p. 165 |
Motor Evoked Potential Monitoring for the Surgery of Brain Tumours and Vascular Malformations | |
Abstract | p. 172 |
Introduction | p. 173 |
Direct Stimulation Mapping | p. 173 |
Evoked Potentials | p. 174 |
Motor Evoked Potentials | p. 175 |
MEP Technique | p. 176 |
Stimulation | p. 177 |
Recording | p. 183 |
Safety and Anesthesia | p. 184 |
Equipment and Staffing | p. 186 |
Neurophysiological Functional Mapping of the Pericentral Cortex | p. 188 |
SEP Phase Reversal | p. 189 |
Intraoperative Stimulation Mapping | p. 193 |
Extraoperative Mapping with Grid Electrodes | p. 195 |
Principles of Clinical Application | p. 196 |
Indications for MEP Monitoring | p. 196 |
Interpretation of MEP Changes | p. 197 |
Correlation of Intraoperative MEP Changes and Motor Outcome | p. 198 |
Surgical Reactions to MEP Changes | p. 200 |
Influence of MEP Monitoring on Surgical Results and Outcome | p. 201 |
Specific Applications | p. 202 |
Supratentorial Tumors and Vascular Malformations | p. 202 |
Central Tumors and AVMs | p. 203 |
Insular Tumors and Sylvian AVMs | p. 204 |
Infratentorial Surgery | p. 208 |
Indications for MEP Monitoring | p. 208 |
Impact on Surgical Strategy | p. 208 |
Clinical Experience with MEP Monitoring for Infratentorial Surgery | p. 208 |
Aneurysms | p. 211 |
SEP Monitoring for Aneurysm Surgery | p. 211 |
Conduction of MEP Monitoring for Aneurysm Surgery | p. 212 |
Clinical Experience | p. 212 |
Clinical Relevance of Aneurysm Monitoring | p. 213 |
Summary and Conclusions | p. 213 |
Why MEP Monitoring? | p. 213 |
When to Perform MEP Monitoring? | p. 217 |
How to Achieve Good MEP Monitoring? | p. 217 |
How to Assess and Interpret MEPs? | p. 218 |
Does MEP Monitoring Influence Surgical Strategy and Postoperative Outcome? | p. 218 |
References | p. 219 |
Functional Neuronavigation and Intraoperative MRI | |
Abstract | p. 229 |
Introduction | p. 230 |
Functional Neuronavigation | p. 231 |
Magnetoencephalography | p. 232 |
Functional MRI | p. 233 |
Clinical Impact of Functional Imaging | p. 234 |
Comparing MEG/fMRI | p. 234 |
Intraoperative Imaging | p. 237 |
Low-Field MR Imaging | p. 237 |
Clinical Experience | p. 238 |
Pituitary Tumour Surgery | p. 239 |
Glioma Surgery | p. 240 |
Epilepsy Surgery | p. 242 |
Limitations and Imaging Alternatives | p. 242 |
High-Field MR Imaging | p. 244 |
Integration of a High-Field Scanner into the Operating Room | p. 245 |
First Clinical Results | p. 247 |
Summary & Future Developments | p. 248 |
Acknowledgments | p. 254 |
References | p. 254 |
Surgical Anatomy of the Insula | |
Summary | p. 265 |
Introduction | p. 266 |
Descriptive Anatomy [33, 39] | p. 269 |
The Borders of the Insula | p. 269 |
The Insular Cortex (Fig. 7) | p. 270 |
Relationships (Figs. 8-12) | p. 272 |
The Association Fibers | p. 273 |
Short Association Fibers | p. 273 |
Long Ipsihemispheric Association Fascicles | p. 273 |
Vascular Anatomy (Figs. 13-15) | p. 274 |
Arterial Relationships | p. 277 |
Veins | p. 278 |
Functional Anatomy | p. 278 |
Connections (Fig. 17) [1, 17, 18] | p. 278 |
Physiological Roles of the Insula [1-3, 13, 14, 22, 23, 27] | p. 280 |
Insula and Pain | p. 281 |
The Insula and Epilepsy Surgery | p. 283 |
Tumoral Surgery in the Insular Region | p. 283 |
Conclusion | p. 285 |
References | p. 285 |
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