000			04981nam a22001577a 4500
999			_c19465 _d19465
020			_a9780443155482
082			_a612.85 EGG
100			_aEggermont, Jos J.
245			_aBrain responses to auditory mismatch and novelty detection : predictive coding from cocktail parties to auditory-related disorders / _cJos J Eggermont
260			_aLondon : _bAcademic Press, _c2023.
300			_a458 p.
505			_aCover Title page Table of Contents Copyright Preface Reference Abbreviations Chapter 1: A primer on predictive coding and network modeling Abstract 1.1: Introduction 1.2: Hierarchical learning 1.3: From hierarchical learning to predictive coding 1.4: Predictive coding and Bayesian inference 1.5: Brain areas and activity involved in predictive coding 1.6: Modeling networks underlying predictive coding 1.7: Predictive coding networks and cognition 1.8: Is predictive coding complete? 1.9: Summary References Chapter 2: Setting the stage: Cocktail parties, auditory streaming, mismatch negativity, and stimulus-specific adaptation Abstract 2.1: Introduction 2.2: Auditory stream segregation 2.3: Human electrophysiology and neural imaging 2.4: Stimulus-specific adaptation in animal models as an equivalent of the MMN 2.5: Novelty detection 2.6: Mismatch responses and predictive coding 2.7: Summary References Chapter 3: Neural adaptation and forward masking along the auditory pathway Abstract 3.1: Introduction 3.2: Electrophysiology of adaptation and forward masking 3.3: A putative role of neural adaptation in explaining the mismatch negativity 3.4: Summary References Chapter 4: Animal studies of deviance detection along the auditory pathway Abstract 4.1: MMN in animals? 4.2: Stimulus-specific adaptation in animals 4.3: The role of auditory cortex in mismatch detection and predictive coding 4.4: Summary References Chapter 5: Auditory cortical event-related potentials in the human brain Abstract 5.1: Introduction 5.2: Effects of adaptation, attention, and memory 5.3: Deviance detection 5.4: Novelty processing 5.5: Summary References Chapter 6: Development and maturation aspects of predictive coding Abstract 6.1: Introduction 6.2: Maturation of subcortical activity 6.3: Cortical auditory evoked potentials 6.4: Maturation of the mismatch response 6.5: Novelty detection. Maturation of the P300 complex 6.6: Summary References Chapter 7: Role of event-related potentials and brain rhythms in predictive coding Abstract 7.1: Auditory stream segregation 7.2: Networks underlying error responses in predictive coding 7.3: The role of auditory areas in predictive coding 7.4: Are brain oscillations a substitute for ERPs in predictive coding? 7.5: Local vs global deviance 7.6: Summary References Chapter 8: Predictive coding in autism spectrum disorder, attention-deficit/hyperactivity disorder, and dyslexia Abstract 8.1: Introduction 8.2: Characterizing auditory aspects of ADHD and ASD 8.3: Changes in auditory brainstem responses and cortical auditory evoked potentials 8.4: Changes in MMN and the P3 complex 8.5: Do ERPs diagnose between ASD and ADHD? 8.6: Does predictive coding contribute? 8.7: Developmental dyslexia 8.8: Summary References Chapter 9: Predictive coding in aging, tinnitus, MCI, and Alzheimer’s disease Abstract 9.1: Auditory aspects of aging 9.2: Tinnitus 9.3: ERPs in aging, mild cognitive impairment, and Alzheimer's disease 9.4: Summary References Chapter 10: Brain networks involved in deviance and novelty detection: Are they sensory modality specific? Abstract 10.1: Introduction 10.2: Sensory modality-dependent mismatch negativity 10.3: Network changes underlying cognition 10.4: Networks underlying prediction-error coding 10.5: Summary References Chapter 11: Predictive coding in music, speech, and language Abstract 11.1: Right-hemisphere dominance 11.2: Similar brain areas are activated by music and language 11.3: Cortical pathways in linguistic processing 11.4: Role of brain rhythms in music and language coding 11.5: Predictive coding in more detail 11.6: Alternative models to predictive coding in speech and language 11.7: Summary References Chapter 12: Network changes underlying neural disorders: Relation to the MMN networks Abstract 12.1: Network changes in tinnitus 12.2: Functional connectivity in dyslexia 12.3: Network changes across aging and neurodegenerative disorders 12.4: Autism spectrum disorder 12.5: ADHD 12.6: MCI and Alzheimer's disease 12.7: Integration of the MMN network and disorder-specific changes 12.8: Summary References Appendix: A primer on cortical auditory evoked potentials and magnetic fields A.1: Obligatory—Exogenous—Cortical auditory evoked potentials A.2: Description of CAEP components A.3: Endogenous auditory event-related potentials References Index
650			_aBrain
650			_aHearing disorders
650			_ahuman auditory evoked potentials