Please use this identifier to cite or link to this item: https://hdl.handle.net/1959.11/56950
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dc.contributor.authorNandagopal, Den
dc.contributor.authorVijayalakshmi, Ren
dc.contributor.authorCocks, Bernieen
dc.contributor.authorDahal, Nabarajen
dc.contributor.authorDasari, Nagaen
dc.contributor.authorThilaga, Men
dc.date.accessioned2023-12-12T02:57:56Z-
dc.date.available2023-12-12T02:57:56Z-
dc.date.issued2015-
dc.identifier.citationKnowledge-based information systems in practice, p. 115-136en
dc.identifier.isbn9783319135441en
dc.identifier.isbn9783319356297en
dc.identifier.isbn9783319135458en
dc.identifier.urihttps://hdl.handle.net/1959.11/56950-
dc.description.abstract<p>The human brain is one of the most complex and adaptive systems available to society. The brain consists of tens of billion of neurons (processing nodes) and over 100 trillion interconnections. This makes it an extremely complex communication network. The brain functions at a neuronal level have been explored and understood. However, at a systems level, the brain functions relating to "self awareness, conscience, emotion, intelligence, and judgment" still puzzles scientists today. Identifying the integrative aspects of brain structure and function, specifically how the connections and interactions among neuronal elements (neurons, synapses, cerebellum and contextual regions) result in cognition and behavior, is one of the last great frontiers for scientific research. Unraveling the activity of the brain's billions of neurons and how they combine to form functional networks has been constrained to behavioural observations. It remains further restricted by both technological and ethical constraints" thus, researchers are increasingly turning to sophisticated data search techniques to unravel hidden complexity. Techniques including complex network clustering and graph mining algorithms can be used to further delve into the hidden workings of the human mind. Combining these techniques with advanced signal processing techniques, inferential statistics can be used to support efficient visualization techniques to help researchers unfold and discover hidden patterns and functionality of brain networks. The objective of this chapter is to present an overview of the applications of approaches to multichannel Electroencephalography( EEG) data, bringing together a variety of techniques, including complex network analysis, linear and non-linear statistical methods. These measures include coherence, mutual information, approximate entropy, information visualization, signal processing, multivariate techniques such as the one-way ANalysis Of VAriance (ANOVA), and Post-hoc analysis procedures. The Cognitive Analysis Framework (CAF) approach outlined in this chapter aims to investigate and demonstrate the integration of these techniques and methodologies. The experiments provide deeper understanding of complex brain dynamics as well as allowing the identification of differences in system complexity, believed to underscore normal human cognition.</p>en
dc.languageenen
dc.publisherSpringeren
dc.relation.ispartofKnowledge-based information systems in practiceen
dc.relation.ispartofseriesSmart Innovation, Systems and Technologiesen
dc.relation.isversionof1en
dc.titleComputational Neuroengineering Approaches to Characterise Cognitive Activity in EEG Dataen
dc.typeBook Chapteren
dc.identifier.doi10.1007/978-3-319-13545-8_8en
local.contributor.firstnameDen
local.contributor.firstnameRen
local.contributor.firstnameBernieen
local.contributor.firstnameNabarajen
local.contributor.firstnameNagaen
local.contributor.firstnameMen
local.profile.schoolSchool of Psychologyen
local.profile.emailbcocks3@une.edu.auen
local.output.categoryB1en
local.record.placeauen
local.record.institutionUniversity of New Englanden
local.publisher.placeCham, Switzerlanden
local.identifier.totalchapters15en
local.format.startpage115en
local.format.endpage136en
local.peerreviewedYesen
local.contributor.lastnameNandagopalen
local.contributor.lastnameVijayalakshmien
local.contributor.lastnameCocksen
local.contributor.lastnameDahalen
local.contributor.lastnameDasarien
local.contributor.lastnameThilagaen
dc.identifier.staffune-id:bcocks3en
local.profile.orcid0000-0002-0101-6894en
local.profile.roleauthoren
local.profile.roleauthoren
local.profile.roleauthoren
local.profile.roleauthoren
local.profile.roleauthoren
local.profile.roleauthoren
local.identifier.unepublicationidune:1959.11/56950en
dc.identifier.academiclevelAcademicen
dc.identifier.academiclevelAcademicen
dc.identifier.academiclevelAcademicen
dc.identifier.academiclevelAcademicen
dc.identifier.academiclevelAcademicen
dc.identifier.academiclevelAcademicen
local.title.maintitleComputational Neuroengineering Approaches to Characterise Cognitive Activity in EEG Dataen
local.output.categorydescriptionB1 Chapter in a Scholarly Booken
local.search.authorNandagopal, Den
local.search.authorVijayalakshmi, Ren
local.search.authorCocks, Bernieen
local.search.authorDahal, Nabarajen
local.search.authorDasari, Nagaen
local.search.authorThilaga, Men
local.uneassociationNoen
local.atsiresearchNoen
local.sensitive.culturalNoen
local.year.published2015en
local.fileurl.closedpublishedhttps://rune.une.edu.au/web/retrieve/87b87c2f-d8ce-40be-83ee-11a8bd2522b6en
local.subject.for2020520203 Cognitive neuroscienceen
local.subject.seo2020280121 Expanding knowledge in psychologyen
local.profile.affiliationtypeExternal Affiliationen
local.profile.affiliationtypeExternal Affiliationen
local.profile.affiliationtypeExternal Affiliationen
local.profile.affiliationtypeExternal Affiliationen
local.profile.affiliationtypeExternal Affiliationen
local.profile.affiliationtypeExternal Affiliationen
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School of Psychology
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