title: A theoretical basis for standing and traveling brain waves measured with human EEG with implications for an integrated consciousness.
abstract: OBJECTIVE
  We propose a theoretical framework for EEG and evoked potential studies based on the single postulate that these data are composed of a combination of waves (as this term is used in the physical sciences) and thalamocortical network activity.
  
  
  METHODS
  Using known properties of traveling and standing waves, independent of any neocortical dynamic theory, our simple postulate leads to experimental predictions, several of which have now been verified. A mathematical-physiological theory of "brain waves" based on known (but highly idealized) properties of cortical synaptic action and corticocortical fibers is used to support the framework.
  
  
  RESULTS
  Brain waves are predicted with links between temporal frequencies and the spatial distributions of synaptic activity. Such dispersion relations, which essentially define more general phenomena as waves, are shown to restrict the spatial-temporal dynamics of synaptic action with many experimental EEG consequences.
  
  
  CONCLUSIONS
  The proposed framework accounts for several salient features of spontaneous EEG and evoked potentials.
  
  
  CONCLUSIONS
  We conjecture that wave-like behavior of synaptic action may facilitate interactions between remote cell assemblies, providing an important mechanism for the functional integration underlying conscious experience.
authors.affiliation: Department of Biomedical Engineering, Tulane University and Brain Physics LLC, Brain Physics LLC, 162 Bertel Drive, Covington, LA 70433, USA. pnunez@tulane.edu
authors.forename: Paul L
authors.initials: PL
authors.lastname: Nunez
authors.forename: Ramesh
authors.initials: R
authors.lastname: Srinivasan
mesh_terms: D000465:Algorithms; D001921:Brain / Q000502:physiology*; D003243:Consciousness / Q000502:physiology*; D004569:Electroencephalography; D005071:Evoked Potentials / Q000502:physiology; D006801:Humans; D015225:Magnetoencephalography; D008959:Models, Neurological; D013569:Synapses / Q000502:physiology