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ویرایش: 1 نویسندگان: Xuefeng Wang, Feng Li, Suyue Pan سری: ISBN (شابک) : 9811644926, 9789811644924 ناشر: Springer سال نشر: 2021 تعداد صفحات: 360 زبان: English فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود) حجم فایل: 50 مگابایت
در صورت تبدیل فایل کتاب Multi-Modal EEG Monitoring of Severely Neurologically Ill Patients به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب مانیتورینگ EEG چند وجهی بیماران شدیداً بیمار عصبی نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
این کتاب اطلاعات عملی در مورد کاربردهای مانیتورینگ EEG چند وجهی در بیماران مبتلا به بیماری های شدید عصبی ارائه می دهد. بخش اول به طور سیستماتیک تکنیک های EEG مدرن و سیستم نظارت بر EEG چند وجهی را برای بیماری های عصبی شدید معرفی می کند. در بخش دوم، شناسایی مصنوعات EEG و تفسیر الگوهای EEG غیر طبیعی رایج ارائه شده است. همراه با بیش از 50 مورد معمولی و 200 رکورد EEG، فصل های بعدی تغییرات EEG و اهمیت بالینی در کما، انسفالوپاتی ایسکمیک هیپوکسیک، صرع وضعیت، بیماری کروتسفلد-جاکوب، آسیب مغزی تروماتیک و سایر بیماری ها را با جزئیات مورد بحث قرار می دهد. علاوه بر این، استفاده از EEG چند وجهی در نظارت بر فشار داخل جمجمه و پیشبینی خطر خودکشی نیز گنجانده شده است. این یک مرجع ارزشمند برای متخصصان مغز و اعصاب، جراحی مغز و اعصاب، مراقبت های اورژانسی، روانپزشکی، متخصصان فناوری EEG و پرستاران ارشد با دانش پایه نظارت بر EEG خواهد بود.
This book provides practical information on applications of multi-modal EEG monitoring in patients with severely neurologically diseases. The First part systematically introduces the modern EEG techniques, and multi-modal EEG monitoring system for severe neurological illness. In the second part, identification of EEG artifacts and interpretation of common abnormal EEG patterns is presented. Accompanying more than 50 typical cases and 200 EEG records, the following chapters discusses EEG’s changes and clinical significance in coma, ischemic-hypoxic encephalopathy, status epilepsy, Creutzfeldt-Jakob disease, traumatic brain injury, and other diseases in details. In addition, application of multi-modal EEG in monitoring intracranial pressure and predicting suicide risk is also included. It will be a valuable reference for professionals in neurology, neurosurgery, emergency care, psychiatry, technology specialists of EEG and senior nurses with basic EEG monitoring knowledge.
Contents Contributors List of Abbreviations Part I: Electroencephalogram (EEG) Basis and Quantitative Electroencephalogram (qEEG) Technology 1: Basic Theory of EEG 1.1 Formation of EEG 1.2 Mechanism of the Formation of an EEG 1.3 EEG Distribution, Waveform, and Amplitude 1.3.1 Frequency 1.3.2 Amplitude 1.3.3 Waveform 1.3.4 Phase Relation 1.3.5 Mode of Occurrence of Abnormal Waves 1.3.6 Distribution and Breadth 1.3.7 Reactivity 1.4 Common EEG Recording Methods 1.4.1 Monopolar Lead (Fig. 1.1) 1.4.2 Bipolar Lead (Fig. 1.2) 1.4.3 The Parameters to Check 1.5 Interpretation of the EEG of Healthy Adults 1.6 Recognition of Common Artifacts in the EEGs of Patients in Severe Condition 1.6.1 Physiological Artifacts 1.6.2 Artifacts from Instruments and Electrodes 1.6.3 Artifacts from Environmental Electromagnetic Interference References 2: qEEG Monitoring System in Severely Ill Patients 2.1 Basic Concepts of qEEG 2.2 Trend Chart Commonly Used in qEEG 2.2.1 aEEG 2.2.2 RBP 2.2.3 RAV 2.2.4 Spectral Entropy 2.2.5 Other Trend Graphs 2.3 Common Artifacts and Recognition of qEEG 2.3.1 Physiological Artifacts 2.3.2 Nonphysiological Artifacts References Part II: Interpretation and Clinical Significance of Abnormal EEG in Severely Ill Patients 3: Common Abnormal EEG in Neurocritical Ill Patients 3.1 Common Abnormal Discharge Patterns in Severely Ill Patients 3.1.1 Generalized or Diffuse Discharges (Figs. 3.1, 3.2, 3.3, 3.4, and 3.5) 3.1.1.1 Generalized Epileptiform Discharges (GEDs) 3.1.1.2 Diffuse Discharge (Fig. 3.6) 3.1.2 Unilateral Discharges (Figs. 3.7 and 3.8) 3.1.3 Multifocal Discharges (Figs. 3.9 and 3.10) 3.2 PDs 3.2.1 The Discovery and Historical Evolution of PDs 3.2.2 The Classification of PDs 3.2.2.1 LPDs 3.2.2.2 BIPDs 3.2.2.3 GPDs 3.2.2.4 Others 3.2.3 Prevalence 3.2.4 Clinical Characteristics of PDs 3.2.4.1 LPDs 3.2.4.2 GPDs 3.2.4.3 BIPDs 3.2.4.4 TWs 3.2.4.5 SIRPIDs 3.2.4.6 Case 3.3 IIC in cEEG Monitoring 3.3.1 Background 3.3.1.1 IIC Definition 3.3.1.2 Patterns Along the IIC 3.3.2 Risks of Seizure and Prognosis Related to Patterns Along the IIC 3.3.2.1 LPDs 3.3.2.2 GPDs 3.3.2.3 BIPDs 3.3.2.4 RDA 3.3.2.5 SIRPIDs 3.3.2.6 B(I)RDs 3.3.3 Treatment Algorithm 3.3.3.1 Use of AEDs 3.3.3.2 Multimodal Monitoring 3.3.4 Conclusion 3.4 Abnormal Slow-Wave Activity 3.4.1 PNDA 3.4.2 IRDA 3.4.3 PHDA 3.5 α Coma and β Coma 3.5.1 Introduction 3.5.2 Historical Evolution 3.5.3 Concepts 3.5.3.1 α Coma 3.5.3.2 β Coma 3.5.4 The Clinical Significance and Related Pathological Mechanisms of α Coma and β Coma 3.5.4.1 α Coma 3.5.4.2 β Coma 3.5.4.3 Cases 3.6 BS Pattern in EEG 3.6.1 The Historical Evolution of the BS Pattern in EEGs 3.6.2 The Possible Mechanism of BS Patterns 3.6.3 The BS Pattern in Different Diseases 3.6.3.1 The BS Pattern in Epileptic Encephalopathy 3.6.3.2 The BS Pattern in Hypoxic Brain Injury 3.6.3.3 The Effect of Anesthetics on BS Patterns 3.6.3.4 The BS Pattern and Postanesthesia Delirium 3.6.3.5 The BS Pattern in Brain Injury 3.6.3.6 The BS Pattern in the Dying State 3.6.3.7 The BS Pattern in Metabolic Encephalopathy 3.6.4 Advances in BS Pattern Research 3.6.4.1 The Relationship Between EEG Power Spectral Density and the BS Pattern with Propofol 3.6.4.2 The Use of FDG-PET Combined with the BS Pattern to Predict the Effect of Drug Treatment 3.7 Nonreactive Low-Voltage Slow Activity and ECS References 4: Abnormal EEG Background Activity 4.1 EEG Symmetry 4.1.1 The Clinical Significance of Mild/Significant Amplitude Asymmetry 4.1.2 Gap Effect 4.1.3 The Clinical Significance of the Front-Back Gradient and Front-Back Inverse Gradient 4.2 EEG Continuity 4.2.1 Definition of EEG Continuity 4.2.2 Near-Continuous and Discontinuous EEG Patterns 4.2.3 Discontinuous EEG of BS Patterns (See the Sect. 3.6 for Details) 4.2.4 Suppression-State Background Mode 4.3 EEG-R 4.3.1 The Definition of EEG-R 4.3.2 The Prognostic Value of EEG-R for Adult Patients 4.3.3 The Prognostic Value of EEG-R in Children 4.3.4 It Is Feasible to Study EEG-R Using Quantitative Methods? 4.3.5 The Shortcomings of the Use of EEG-R to Judge Prognosis References 5: Patterns and Clinical Significance of Abnormal Sleep EEG 5.1 Sleep Structure and Sleep Cycle 5.2 Atypical Sleep Types 5.3 Sleep Apnea 5.4 Application of Abnormal Sleep in Brain Function Damage and Prognosis Judgment of Severely Ill Patients References Part III: Application of Multimodal EEG in Severely Ill Patients 6: Application of Multimodal EEG in Coma Patients 6.1 Methods to Evaluate Brain Function in Patients with Impaired Consciousness and the Significance of Multimodal EEG Evaluation 6.2 The Application of Multimodal EEG in Patients with Consciousness Disorder 6.2.1 Common Abnormal EEG Background Activity in Coma Patients 6.2.2 The Role of EEG-R in the Evaluation of Brain Function and the Prognosis of Patients with Severe Coma 6.2.3 The Role of Abnormal Sleep Waveforms in the Brain Function and Prognosis of Patients with Severe Coma 6.2.4 The Application of EPs in the Judgment of Brain Function and the Prognosis of Patients with Severe Coma 6.2.5 aEEG 6.2.6 BIS References 7: Application of Multimodal EEG in HIE 7.1 Clinical Features of HIE 7.2 The Pathogenesis of HIE 7.3 The Prognosis of HIE 7.4 Common Brain Function Assessment Methods in HIE 7.5 Multidimensional EEG Predicts the Prognosis of Patients with HIE 7.5.1 Common EEG Manifestations of HIE After CPR 7.5.2 EEG-R 7.5.3 EEG Sleep Spindles 7.6 The Role of Multimode EEG in the Diagnosis, Treatment, and Prognosis of HIE 7.6.1 Application of aEEG in HIE 7.6.2 The Application of the RAV Coefficient in HIE 7.6.3 The Application of the BIS in HIE References 8: Application of Multimodal EEG in SE 8.1 Definition of SE 8.2 Classification of SE 8.3 Application of Multimodal EEG in SE 8.3.1 Indications for EEG 8.3.2 Manifestations of SE on EEG 8.3.2.1 Traditional EEG Spike Waves Sharp Waves Multispike Waves Spike Slow Waves Sharp Slow Waves Nonspecific Epileptiform Discharges PDs GPDs BS RDA 8.3.2.2 aEEG 8.3.3 The Role of Multimodal EEG in the Diagnosis of SE 8.3.3.1 EEG Monitoring Indications Start Time of EEG Monitoring Monitoring Duration The Positive Rate of Monitoring 8.3.3.2 Standards for the Diagnosis of SE by EEG 8.3.3.3 The Role of Conventional EEG in the Diagnosis of NCSE EEG Diagnostic Criteria for NCSE Clinical Practice 8.3.3.4 The Role of Conventional EEG in the Diagnosis of CSE 8.3.3.5 The Role of aEEG in the Diagnosis of SE The Value of aEEG in the Diagnosis of SE The Performance of SE on aEEG Clinical Practice 8.3.3.6 The Role of Sleep EEG in the Diagnosis of SE 8.3.4 The Role of Multimodal EEG in the Treatment of SE 8.3.4.1 Treatment Goals 8.3.4.2 Efficacy Criterion 8.3.4.3 The Role of aEEG in the Treatment of SE 8.3.5 The Role of Multimodal EEG in Judging the Prognosis of SE 8.3.5.1 The Use of aEEG to Judge the Prognosis of Patients with SE The Role of aEEG in Judging Prognosis Clinical Practice 8.3.5.2 The Role of BIS in Judging the Prognosis of Patients with SE 8.3.5.3 Video-EEG to Judge the Prognosis of Patients with SE 8.4 New Developments in Multimodal EEG 8.4.1 Improvement of EEG Electrodes 8.4.2 Predicting the Recurrence of RSE After the Discontinuation of Anesthetics 8.5 Discussion References 9: Clinical Application of Multimodal EEG in Acute Ischemic Stroke 9.1 Pathophysiological Basis of EEG Changes in Ischemic Stroke 9.2 EEG Manifestations of Ischemic Stroke 9.3 qEEG Changes in Acute Ischemic Stroke References 10: Application of Multimodal EEG in TBI 10.1 Overview 10.2 Mechanisms of EEG Changes Related to the Pathophysiology of TBI 10.2.1 Cortical Spreading Depolarization (CSD) or Cortical Spreading Depression (CSD) 10.2.1.1 Discovery and Definition 10.2.1.2 The Relationship Between SD and Pathophysiological Changes in TBI 10.2.2 IEFPs and Spreading Convulsions (SCs) 10.2.2.1 Discovery and Definition 10.2.2.2 The Relationship Between the Pathophysiology of TBI and IEFPs and SCs 10.2.2.3 The Relationship Between IEFPs and SD 10.2.3 Traumatic Axonal Injury and Neural Network 10.3 Common EEG Manifestations and Clinical Significance of TBI 10.3.1 Abnormal Background Activity 10.3.1.1 The Diversity of EEG Background Patterns 10.3.1.2 The Main Frequency of EEG and TBI 10.3.1.3 The Sleep Structure of EEGs and TBI 10.3.1.4 The Variability and Reactivity of EEGs and TBI 10.3.1.5 The Continuity of EEG Background Activities and TBI 10.3.2 Abnormal Paroxysmal Activity 10.3.2.1 SD Wave Monitoring and Clinical Significance Monitoring Methods SD Model and Clinical Significance 10.3.2.2 IEEs and IIC IEEs IIC References 11: Application of Multimodal EEG in AE 11.1 Overview 11.2 Epidemiology of AE and Related Inspection Methods 11.3 EEG Features of AE 11.3.1 Slow Waves 11.3.2 Epilepsy Waves 11.3.3 EBA 11.3.4 EDB Wave 11.4 The Clinical Value of EEG in AE 11.4.1 Role in Early Diagnosis 11.4.2 Effect on Epilepsy and SE 11.4.3 Role in Prognostic Evaluation References 12: Application of Multimodal EEG in ICP Monitoring 12.1 Common Methods and Importance of ICP Monitoring 12.2 Effects of Increased ICP on EEGs 12.3 Common EEG Changes Due to Intracranial Hypertension 12.4 EEG Manifestations of Ischemia-Reperfusion Injury 12.5 The Clinical Application Value of Multimodal Monitoring in Patients with Intracranial Hypertension References 13: Application of Multimodal EEG in Sedation and Analgesia 13.1 The Effect of Sedative Drugs on EEG 13.1.1 Benzodiazepines 13.1.2 Propofol 13.1.3 Ketamine 13.1.4 Dexmedetomidine 13.2 The Role of Multimodal EEG Monitoring to Evaluate the Sedative Effect 13.2.1 The Role of BIS Monitoring in Evaluating Sedation and Analgesia 13.2.2 The Role of aEEG in Evaluating Sedation and Analgesia 13.2.3 95% SEF 13.2.4 Entropy Index 13.2.5 RBP 13.3 Multimodal EEG and Different Sedative Drugs 13.4 Multimodal EEG Manifestations of Excessive Sedation References 14: Application of Multimodal EEG in Predicting the Risk of Suicide 14.1 The Neurophysiological Mechanism of EEG Changes in Suicidal Patients 14.2 The Role of PSG in Predicting the Risk of Suicide in Patients 14.2.1 The Neurobiological Mechanism of Suicide 14.2.2 Progress in Research on Suicide Risk and Objective Sleep Monitoring 14.2.2.1 Suicide Risk and Changes in Macroscopic Sleep Structure Prolonged Sleep Latency Increased REM Sleep Sleep Reduction in Stage 4 of NREM Lower Sleep Efficiency 14.2.2.2 Suicide Risk and Changes in Microscopic Sleep Structure 14.2.2.3 The Correlation Between Suicide Risk and OSAS 14.2.3 The Role of Objective Sleep Monitoring Indicators in Determining the Early Warning Signs of and Guiding Interventions for Suicide Risk 14.3 Common Multimodal EEG Manifestations in Suicide Patients 14.3.1 Background 14.3.2 EEG Manifestations 14.3.3 EEG Power Spectrum Manifestations 14.3.4 ERP Manifestations 14.3.5 Summary 14.4 Research Progress on the Use of Multimodal EEG in Predicting Suicide 14.4.1 Background 14.4.2 Multiple Cognitive Deficits Are Associated with Suicide 14.4.2.1 Defects in Decision-Making Functions 14.4.2.2 Insufficient Anti-interference Ability 14.4.2.3 Deficits in Cognitive Control 14.4.2.4 Abnormality in the Expectation and Initial Reaction to Rewards 14.4.3 EEG Abnormalities Related to Suicide 14.4.3.1 Changes in EEG Power Spectra 14.4.3.2 Abnormal Spatial Distribution of EEG Frequency 14.4.4 Suicide-Related Brain Structural and Functional Changes 14.4.4.1 Various Brain Structural and Functional Abnormalities 14.4.4.2 Machine Learning-Assisted Imaging Diagnosis of Suicide 14.4.5 Summary and Outlook References 15: Application of Multimodal EEG in the Determination of Brain Death 15.1 Prerequisites for Judgment 15.1.1 The Cause of the Coma Is Clear 15.1.2 The Exclusion of Various Causes of Reversible Coma 15.2 Clinical Judgment 15.2.1 Deep Coma 15.2.2 All Brainstem Reflexes Disappeared [8] 15.2.3 No Spontaneous Breathing 15.3 Confirmation Tests 15.3.1 EEG 15.3.2 SLSEP Monitoring 15.3.3 TCD Monitoring 15.3.4 Order of Confirmation Tests 15.4 Judgment Steps 15.5 Judgment Times References 16: Application of the BIS in the ICU 16.1 Principle of BIS Monitoring 16.2 Factors Influencing the BIS 16.3 Correlation Between the BIS and Clinical Anesthetics 16.4 Clinical Application of the BIS 16.4.1 Monitoring the Depth of Sedation 16.4.2 Analgesia 16.4.3 The Use of BIS Monitoring to Evaluate the Degree and Prognosis of Brain Injury References 17: Application of aEEG in Severely Ill Patients 17.1 Overview 17.2 aEEG 17.2.1 Signal Processing of aEEG 17.2.2 Monitoring Channels of aEEG 17.2.3 Analysis Indexes of aEEGs, the Classification of aEEG Patterns, and Criteria for the Classification of aEEGs 17.2.3.1 Analysis Indexes of aEEGs 17.2.3.2 Classification of aEEG Patterns 17.2.3.3 Criteria for the Classification of aEEGs [6] 17.3 Application of aEEG in PICUs 17.3.1 HIE 17.3.2 Brain Injury in Premature Infants 17.3.3 Neonatal Convulsions 17.3.4 Epilepsy 17.3.5 Others 17.4 Application of aEEG in Adult ICUs 17.4.1 Prognosis Assessment of Coma Patients After Cardiac Arrest 17.4.2 Application in Epilepsy Patients 17.4.3 Prognosis Assessment of Anti-NMDAR Encephalitis References