Glossary of EEG Terms
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Research on Light and Sound
Research on light and sound Welcome! I’ve spent the last five years reading all the available research on mind machines – and now I’ve pulled together the most accessible of this information as a way to encourage you to try this technology yourself. Mind machines are referred to in these reports in a number of ways: • BWS (Brainwave Synchronisers) • LS (light and sound devices) • AVS (audio visual stimulation) • Photic stimulation All refer to the same technology which is built into our range of mind machines. All our mind machines can generate all the frequencies mentioned in these reports. I’ve condensed some of the reports for readability – and because some of the data is repeated. For example I’ve taken out three paragraphs from the extract from Megabrain Power as the original full reports are included here. I’ve had the very good fortune to spend time with many of the people mentioned in these pages: Robert Austin, Tom Budzynski, Michael Hutchison, Julian Isaacs, Harold Russell and David Siever – all thorough and committed researchers at the cutting edge of peak performance technology. Have a great read. You don’t need to understand it all. I just hope you read enough to see for yourself that mind machines really do work, and you’re encouraged to try a unit in your own home, using our 100% money back satisfaction guarantee. Chris Payne, Managing Director, LifeTools Slow wave photic stimulation in the treatment of headache A Preliminary Report by Glen D Solomon, MD (printed in Headache, the official publication of the American Association for the Study of Headache, August 16, 1985) Acute muscle contraction headache Fifteen patients, 10 female and five male, aged 21 to 41 years (mean 33.4 years), were treated with slow wave photic stimulation. -
Electrophysiologic Monitoring in Neurointensive Care
Ovid: Electrophysiologic monitoring in neurointensive care. Main Search Page Ask A LibrarianDisplay Knowledge BaseHelpLogoff Full Text Save Article TextEmail Article TextPrint Preview Electrophysiologic monitoring in neurointensive care Procaccio, Francesco MD*†; Polo, Alberto MD*; Lanteri, Paola MD†; Sala, ISSN: Author(s): Francesco MD† 1070- 5295 Issue: Volume 7(2), April 2001, pp 74-80 Accession: Publication Type: [Neuroscience] 00075198- Publisher: © 2001 Lippincott Williams & Wilkins, Inc. 200104000- University and City Hospital Neuroanesthesia and Intensive Care, Department 00004 of Neurological Sciences and Vision, Divisions of *Neurology and Full †Neurosurgery, Verona, Italy. Institution(s): Text Correspondence to Francesco Procaccio, MD, Neuroanesthesia and Intensive (PDF) Care, University and City Hospital, Pz Stefani, 1, 37124 Verona, Italy; e-mail: 69 K [email protected] Email Jumpstart Table of Contents: Find ≪ Neurologic complications in intensive care. Citing ≫ Pediatric neurologic emergencies. Articles ≪ Abstract Table Links of Cumulative evidence of potential benefits of Contents Abstract electroencephalography (EEG) and evoked potentials in About Complete Reference the management of patients with acute cerebral this ExternalResolverBasic damage has been confirmed. Continuous EEG Journal Outline monitoring is the best method for detecting ≫ nonconvulsive seizures and is strongly recommended for the treatment of status epilepticus. Continuously displayed, ● Abstract validated quantitative EEG may facilitate early detection -
The Evidence-Base for Neurofeedback As a Reimbursable Healthcare Service to Treat Attention Deficit/Hyperactivity Disorder
The Evidence-Base for Neurofeedback as a Reimbursable Healthcare Service to Treat Attention Deficit/Hyperactivity Disorder By H. Edmund Pigott, Ph.D.,a Lindsay De Biase, Ph.D.,b c d Eugenia Bodenhamer-Davis, Ph.D. & Richard E. Davis, M.S. a Ed Pigott, Ph.D. is a licensed psychologist and Director of Neurotherapy Services at Behavioral Health of the Palm Beaches. He is also in private practice at The Center for Brain Training in Jupiter, FL. b Lindsay De Biase, Ph.D. is a neuroscientist and post-doctoral fellow. C Eugenia Bodenhamer-Davis, Ph.D. is an Associate Professor and Director, Neurotherapy Program, University of North Texas and a Board member of the Biofeedback Certification International Alliance. D Richard E. Davis, M.S. is a Licensed Professional Counselor in private practice in Denton, TX, specializing in neurofeedback and Quantitative EEG. He is also a Past President of the International Society of Neurofeedback and Research. Acknowledgements: Preparation of this white paper was guided by extensive discussion and critical review from Henry Harbin with assistance from Thomas Bearden and Robert Thatcher along with the invaluable help from Alexei Berd in securing articles for review. The authors would like to thank the Board of the International Society of Neurofeedback and Research for their support of this project. 1 Table of Contents Executive Summary 3 An Overview of Neurofeedback Practice 6 The Inadequacy of Current ADHD Treatments 8 Neurofeedback: The Operant Conditioning of Trainees’ EEG 12 Neurofeedback: An Evidence-Based -
Guidelines for EEG Reporting William O
GUIDELINE American Clinical Neurophysiology Society Guideline 7: Guidelines for EEG Reporting William O. Tatum,* Selioutski Olga,† Juan G. Ochoa,‡ Heidi Munger Clary,§ Janna Cheek,║ Frank Drislane,¶ and Tammy N. Tsuchida# *Mayo Clinic College of Medicine, Mayo Clinic, Jacksonville, Florida, U.S.A.; †University of Rochester, Rochester, New York, U.S.A.; ‡University of South Alabama, Mobile, Alabama, U.S.A.; §Wake Forest University, Winston Salem, North Carolina, U.S.A.; ║Tulsa, Oklahoma, U.S.A.; ¶Harvard University, Boston, Massachusetts, U.S.A.; and #George Washington University, Washington, DC, U.S.A. Summary: This EEG Guideline incorporates the practice of parameters and type of EEG recording. Sleep feature structuring a report of results obtained during routine adult documentation is also expanded upon. More descriptive terms electroencephalography. It is intended to reflect one of the are included for background features and interictal discharges current practices in reporting an EEG and serves as a revision that are concordant with efforts to standardize terminology. In of the previous guideline entitled “Writing an EEG Report.” The the clinical correlation section, examples of common clinical goal of this guideline is not only to convey clinically relevant scenarios are now provided that encourages uniformity in information, but also to improve interrater reliability for reporting. Including digital samples of abnormal waveforms is clinical and research use by standardizing the format of EEG now readily available with current EEG recording systems and reports. With this in mind, there is expanded documentation of may be beneficial in augmenting reports when controversial the patient history to include more relevant clinical waveforms or important features are encountered. -
EEG Glossary
EEG Glossary The first attempt to systematically propose a syllabus for Activation procedure Any procedure designed to modu- electroencephalographers was made by O’Leary and Knott late EEG activity, for instance to enhance physiologi- who in 1955 published in the EEG Journal “Some Minimal cal waveforms or elicit abnormal paroxysmal activity. Essentials for Clinical Electroencephalographers” [1]. In the Examples include eye closing, hyperventilation, photic following decades, with the EEG being increasingly used in stimulation, natural or drug-induced sleep, sensory stimu- the experimental and clinical field, need to adopt a language lation (acoustic, somatosensory, or pain). as common as possible between various laboratories world- Activity, EEG An EEG wave or sequence of waves of wide became even more pressing. In fact, the multiplicity of cerebral origin. terms generated (and sometimes still generates) confusion Alpha band Frequency band of 8–13 Hz inclusive. Greek and misinterpretations, promoting misdiagnosis and making letter: α. it difficult to compare data between different laboratories. Alpha rhythm Rhythm at 8–13 Hz inclusive occurring To overcome this risk, in 1974 “A Glossary of Terms,” most during wakefulness over the posterior regions of the head, commonly used by “Clinical Electroencephalographers,” was generally with maximum amplitudes over the occipital published in the EEG Journal; this glossary was the result of areas. Amplitude varies but is mostly below 50 μV in the the work of a group of experts from the International Federation adult, but often much higher in children. Best seen with of Clinical Neurophysiology (IFCN) led by Chatrian [2]. the eyes closed, during physical relaxation and relative Thanks to this document, it was for the first time officially mental inactivity. -
Mirror Neurons and Their Reflections
Open Access Library Journal Mirror Neurons and Their Reflections Mehmet Tugrul Cabioglu1, Sevgin Ozlem Iseri2 1Department of Physiology, Faculty of Medicine, Baskent University, Ankara, Turkey 2Department of Clinical Biochemistry, Faculty of Medicine, Hacettepe University, Ankara, Turkey Received 23 October 2015; accepted 7 November 2015; published 12 November 2015 Copyright © 2015 by authors and OALib. This work is licensed under the Creative Commons Attribution International License (CC BY). http://creativecommons.org/licenses/by/4.0/ Abstract Human mirror neuron system is believed to provide the basic mechanism for social cognition. Mirror neurons were first discovered in 1990s in the premotor area (F5) of macaque monkeys. Besides the premotor area, mirror neuron systems, having different functions depending on their locations, are found in various cortical areas. In addition, the importance of cingulate cortex in mother-infant relationship is clearly emphasized in the literature. Functional magnetic resonance imaging, electroencephalography, transcortical magnetic stimulation are the modalities used to evaluate the, activity of mirror neurons; for instance, mu wave suppression in electroencephalo- graphy recordings is considered as an evidence of mirror neuron activity. Mirror neurons have very important functions such as language processing, comprehension, learning, social interaction and empathy. For example, autistic individuals have less mirror neuron activity; therefore, it is thought that they have less ability of empathy. Responses of mirror neurons to object-directed and non-object directed actions are different and non-object directed action is required for the activa- tion of mirror neurons. Previous researchers find significantly more suppression during the ob- servation of object-directed movements as compared to mimed actions. -
Clinical Neurophysiology (CNP) Section Resident Core Curriculum
American Academy of Neurology Clinical Neurophysiology (CNP) Section Resident Core Curriculum 9/7/01 Definition of the Subspecialty of Clinical Neurophysiology The subspecialty of Clinical Neurophysiology involves the assessment of function of the central and peripheral nervous system for the purpose of diagnosing and treatment of neurologic disorders. The CNP procedures commonly used include EEG, EMG, evoked potentials, polysomnography, epilepsy monitoring, intraoperative monitoring, evaluation of movement disorders, and autonomic nervous system testing. The use of CNP procedures requires an understanding of neurophysiology, clinical neurology, and the findings that can occur in various neurologic disorders. The following are the recommended CORE curriculum for residents re CNP. Basic Neurophysiology: Membrane properties of nerve and muscle potentials (resting, action, synaptic, generator), ion channels, synaptic transmission, physiologic basis of EEG, EMG, evoked potentials, sleep mechanisms, autonomic disorders, epilepsy, neuromuscular diseases, and movement disorders Anatomic Substrates of EEG, EMG, evoked potentials, sleep and autonomic activity Indications: Know the indications for and the interpretation of the various CNP tests in the context of the clinical problem. EEG: 1. Recognize normal EEG patterns of infants, children, and adults 2. Recognize abnormal EEG patterns and their clinical significance, including epileptiform patterns, coma patterns, periodic patterns, and the EEG patterns seen with various focal and diffuse neurologic and systemic disorders. 3. Know the EEG criteria for recording in suspected brain death EMG: 1. Know the normal parameters of nerve conduction studies and needle exam of infants, children, and adults 2. Know the abnormal patterns of nerve conduction studies and needle exam and the clinical correlates with various diseases that affect the neuromuscular and peripheral nervous system Evoked Potential Studies 1. -
An Exploration of Physiological Responses to the Native American Flute
An Exploration of Physiological Responses to the Native American Flute Eric B. Miller† and Clinton F. Goss‡ †Montclair State University, Montclair, New Jersey; Email: [email protected] ‡Westport, Connecticut; Email: [email protected] ARTICLE INFORMATION ABSTRACT Presented at ISQRMM, Athens, This pilot study explored physiological responses to playing and listening to the GA: July 26, 2013 Native American flute. Autonomic, electroencephalographic (EEG), and heart Revised: January 24, 2014 rate variability (HRV) metrics were recorded while participants (N = 15) played flutes and listened to several styles of music. Flute playing was accompanied by This work is licensed under the an 84% increase in HRV (p < .001). EEG theta (4–8 Hz) activity increased while Creative Commons Attribution- playing flutes (p = .007) and alpha (8–12 Hz) increased while playing lower- Noncommercial 3.0 license. pitched flutes (p = .009). Increase in alpha from baseline to the flute playing This work has not been peer conditions strongly correlated with experience playing Native American flutes (r reviewed. = +.700). Wide-band beta (12–25 Hz) decreased from the silence conditions when listening to solo Native American flute music (p = .013). The findings of increased HRV, increasing slow-wave rhythms, and decreased beta support the hypothesis that Native American flutes, particularly those with lower pitches, may have a role in music therapy contexts. We conclude that the Native Keywords: music therapy, American flute may merit a more prominent role in music therapy and that a Native American flute, heart rate variability (HRV), study of the effects of flute playing on clinical conditions, such as post-traumatic EEG, alpha stress disorder (PTSD), asthma, chronic obstructive pulmonary disease (COPD), hypertension, anxiety, and major depressive disorder, is warranted. -
Enhancing the Effects of Neurofeedback Training: the Motivational Value of the Reinforcers
brain sciences Article Enhancing the Effects of Neurofeedback Training: The Motivational Value of the Reinforcers Rubén Pérez-Elvira 1 , Javier Oltra-Cucarella 2,* , José Antonio Carrobles 3, Jorge Moltó 4, Mercedes Flórez 4, Salvador Parra 5, María Agudo 1, Clara Saez 1, Sergio Guarino 6, Raluca Maria Costea 7,8 and Bogdan Neamtu 7,8,9 1 Neuropsychophysiology Laboratory, NEPSA Rehabilitación Neurológica, 3003 Salamanca, Spain; [email protected] (R.P.-E.); [email protected] (M.A.); [email protected] (C.S.) 2 Department of Health Psychology, Universidad Miguel Hernández de Elche, 03202 Elche, Spain 3 Biological and Health Psychology Department, Universidad Autónoma de Madrid, 28049 Madrid, Spain; [email protected] 4 PSYD-Neurofeedback, 46022 Valencia, Spain; [email protected] (J.M.); [email protected] (M.F.) 5 LURIA Rehabilitación Neurológica, 11407 Jerez, Spain; [email protected] 6 NEPSA Rehabilitación Neurológica, 47001 Valladolid, Spain; [email protected] 7 Research Department (Ceforaten), Sibiu Pediatric Hospital, 550178 Sibiu, Romania; [email protected] (R.M.C.); [email protected] (B.N.) 8 Faculty of Medicine Lucian Blaga, University from Sibiu, 550169 Sibiu, Romania 9 Faculty of Engineering, Lucian Blaga, University from Sibiu, 550025 Sibiu, Romania * Correspondence: [email protected] Abstract: The brain activity that is measured by electroencephalography (EEG) can be modified through operant conditioning, specifically using neurofeedback (NF). NF has been applied to several disorders claiming that a change in the erratic brain activity would be accompanied by a reduction Citation: Pérez-Elvira, R.; of the symptoms. However, the expected results are not always achieved. Some authors have Oltra-Cucarella, J.; Carrobles, J.A.; suggested that the lack of an adequate response may be due to an incorrect application of the operant Moltó, J.; Flórez, M.; Parra, S.; conditioning principles. -
Download Download
NeuroRegulation http://www.isnr.org The Effect of Infraslow Frequency Neurofeedback on Autonomic Nervous System Function in Adults with Anxiety and Related Diseases Karlien Balt1*, Peet Du Toit1, Mark Smith2, and Charl Janse van Rensburg3 1Department of Human Physiology, Faculty of Health Sciences, University of Pretoria, Pretoria, South Africa 2Neurofeedback Services of New York, New York, New York, USA 3South African Medical Research Council, Biostatistics Unit, Pretoria, South Africa Abstract Peripheral body monitoring of autonomic nervous system (ANS) response has been routinely applied during infraslow fluctuation (ISF) neurofeedback training. This study hypothesized that ISF training has a distinct physiological effect on an individual that can be revealed by measuring autonomic function with peripheral biofeedback metrics that included heart rate variability (HRV), muscle tension, skin temperature, skin conductance, heart rate, respiration rate, and blood pressure. Methods. Thirty adults between the ages of 18 and 55, primarily with anxiety, were randomized into two groups: 20 in the experimental group and 9 in the control group. The experimental group completed 10 ISF neurofeedback training sessions while continuous monitoring of ANS changes was applied. The same process was completed for a control group that received one-channel sensorimotor rhythm (SMR) neurofeedback training. Results. Significant changes were seen in the skin conductance (p < .0001), electromyography (p = .01), very low frequency (p = .004), low frequency of HRV (p = .05) and blood pressure (systolic change p = .049) in the experimental group. No significant changes were seen in the control group. Conclusion. The study demonstrated that ISF neurofeedback training impacts the ANS as measured by peripheral biofeedback indicators. -
ESRS Final Programme
DISCOVER ALICE PDx AT THE RESPIRONICS STAND 8 DURING ESRS 2008 ALICE PDx: FREE YOUR PORTABLE SLEEP-SCORING! Alice PDx is the new advanced portable sleep diagnostic device from Respironics. Designed for portable diagnosis of cardio-repiratory sleep disorders, providing safe, efficient and easy sleep-scoring capacity for your sleep lab. With its intuitive interface and novel ‘Good Study Indicator’, Alice PDx provides unique and timely insights into the results of studies, reducing sleep technologists time and limiting unnecessary transportation From advanced polygraphy, adding the sleep-scoring options, a total of 5 ECG electrodes, 4 total ‘Neuro’ (EEG/EOG) inputs, plus 3 total EMG’s can also be connected allowing ambulatory sleep-scoring. AlicePDx oday is a service mark of Respironics Inc. and its affiliates. Improving T Envisioning tomorrow. Improving today. +33.1.47.52.30.00. WWW.RESPIRONICS.EU ©2008 Respironics, Inc. and its affiliates. All rights reserved. Respironics, Alice are trademarks of Respironics Inc. and its affiliates. Envisioning tomorrow CONTENTS Committees . 2 Acknowledgements . 3 Welcome . 4 Orientation Guide . 6 General Information . 7 Programme Overview . 11 Programme - Tuesday, 9 September . 17 Programme - Wednesday, 10 September . 19 Programme - Thursday, 11 September . 24 Programme - Friday, 12 September . 33 Programme - Saturday, 13 September . 42 Posters . 50 Exhibition Floor Plan . 87 Sponsor Details . 88 Exhibition Catalogue . 90 Social Programme . 99 Tour Programme . 100 1 COMMITTEES EUROPEAN SLEEP RESEARCH SOCIETY -
The Neural Basis of the Dynamic Unconscious
Neuropsychoanalysis, 2011, 13 (1) 5 The Neural Basis of the Dynamic Unconscious Heather A. Berlin (New York) A great deal of complex cognitive processing occurs at the unconscious level and affects how humans behave, think, and feel. Sci- entists are only now beginning to understand how this occurs on the neural level. Understanding the neural basis of consciousness requires an account of the neural mechanisms that underlie both conscious and unconscious thought, and their dynamic interac- tion. For example, how do conscious impulses, thoughts, or desires become unconscious (e.g., repression) or, conversely, how do unconscious impulses, desires, or motives become conscious (e.g., Freudian slips)? Research taking advantage of advances in technologies, like functional magnetic resonance imaging, has led to a revival and re-conceptualization of some of the key concepts of psychoanalytic theory, but steps toward understanding their neural basis have only just commenced. According to psychoanalytic theory, unconscious dynamic processes defensively remove anxiety-provoking thoughts and impulses from consciousness in re- sponse to one’s conflicting attitudes. The processes that keep unwanted thoughts from entering consciousness include repression, suppression, and dissociation. In this literature review, studies from psychology and cognitive neuroscience in both healthy and patient populations that are beginning to elucidate the neural basis of these phenomena are discussed and organized within a con- ceptual framework. Further studies in this emerging field at the intersection of psychoanalytic theory and neuroscience are needed. Keywords: unconscious; psychodynamic; repression; suppression; dissociation; neural “Nothing is so difficult as not deceiving oneself.” 1998a). Early psychodynamic theorists attempted to Ludwig Wittgenstein [1889–1951] explain phenomena observed in the clinic, but lat- er cognitive scientists used computational models of the mind to explain empirical data.