2013 · 20 citations · 16 references
Life SciencesNeurologyNeuroscienceComputational NeuroscienceEpilepsyNeural EngineeringElectroencephalogram AnalysisElectroencephalographyEpilepsy ClassificationFunctional ConnectivityGraph TheoryNeural Data AnalysisAutomated Seizure ClassificationElectroencephalography-based Seizure ClassificationFunctional Connectivity GraphsGraph Theory AnalysisGraph-based Connectivity AnalysisGraph-theoretic Network AnalysisScalp Electroencephalography ClassificationTopological Features
The proposed study presents a novel fully automated data-driven approach for differentiating epileptic subjects from normal controls using graph-based functional connectivity networks calculated using scalp EEG. A set of fourteen density-related, graph distance-based and spectral topological features extracted from the network graph is employed for the classification process. The proposed algorithm demonstrated an accuracy of 87.5% with a sensitivity of 75% and specificity of 100% when tested on 8 subjects. The study showed that graph-based functional connectivity networks in epileptic subjects were significantly different from those of controls (p<;0.05). The study has the potential for aiding neurologists in decision making for diagnostic purposes solely based on scalp EEG.
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