Imaging Brain Function With EEG: Advanced Temporal and.

Freeman, Walter; Quiroga, Rodrigo Quian

ISBN 10: 1493900412 / ISBN 13: 9781493900411

Published by Springer, 2014

About this Item

Print on Demand.

Seller Inventory # 125923567

Bibliographic Details

• Title: Imaging Brain Function With EEG: Advanced Temporal and.
• Publisher: Springer
• Publication Date: 2014
• Language: English
• ISBN 10: 1493900412
• ISBN 13: 9781493900411
• Binding: Soft cover
• Condition: New

About this title

Synopsis

The scalp and cortex lie like pages of an open book on which the cortex enciphers vast quantities of information and knowledge. They are recorded and analyzed as temporal and spatial patterns in the electroencephalogram and electrocorticogram. This book describes basic tools and concepts needed to measure and decipher the patterns extracted from the EEG and ECoG.

This book emphasizes the need for single trial analysis using new methods and paradigms, as well as large, high-density spatial arrays of electrodes for pattern sampling. The deciphered patterns reveal neural mechanisms by which brains process sensory information into precepts and concepts. It describes the brain as a thermodynamic system that uses chemical energy to construct knowledge.

The results are intended for use in the search for the neural correlates of intention, attention, perception and learning; in the design of human brain-computer interfaces enabling mental control of machines; and in exploring and explaining the physicochemical foundation of biological intelligence.

From the Back Cover

The scalp and cortex lie like pages of an open book on which the cortex enciphers vast quantities of information and knowledge. They are recorded and analyzed as temporal and spatial patterns in the electroencephalogram and electrocorticogram. This book describes basic tools and concepts needed to measure and decipher the patterns extracted from the EEG and ECoG.

This book emphasizes the need for single trial analysis using new methods and paradigms, as well as large, high-density spatial arrays of electrodes for pattern sampling. The deciphered patterns reveal neural mechanisms by which brains process sensory information into percepts and concepts. It describes the brain as a thermodynamic system that uses chemical energy to construct knowledge.

The results are intended for use in the search for the neural correlates of intention, attention, perception and learning; in the design of human brain-computer interfaces enabling mental control of machines; and inexploring and explaining the physicochemical foundation of biological intelligence.