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Mental performance classification using fused multilevel feature generation with EEG signals

  • Emrah Aydemir
  • , Mehmet Baygin
  • , Sengul Dogan
  • , Turker Tuncer
  • , Prabal Datta Barua
  • , Subrata Chakraborty
  • , Oliver Faust
  • , N Arunkumar
  • , Feyzi Kaysi
  • , U Rajendra Acharya

Research output: Contribution to journal › Article › peer-review

9 Citations (Scopus)

Abstract

Mental performance classification is a critical issue for brain-computer interfaces. Accurate and reliable classification of good or bad mental performance gives important clues for the preliminary diagnosis of some diseases and mental stress. In this work, we put forward an objective artificial intelligence model to quantify the clarity of thought during mental arithmetic tasks. The proposed model consists of: (i) multilevel feature extraction based on statistical and texture analysis methods, (ii) feature ranking and selection with a Chi2method, (iii) classification, and (iv) weightless majority voting classifier. The novelty of the presented model comes from multilevel fused feature generation. The presented model was developed using 20 channel electroencephalography data from 36 subjects. The signals were captured while the subjects were performing mental arithmetic tasks. The individual datasets were labeled as either good or bad, based on the task results. We have obtained an accuracy of 96.77% using O2 channel with a k-nearest neighbor classifier and reached100.0% accuracy with the majority voting classifier. Our results indicate that it is possible to determine mental performance with artificial intelligence. That might be a steppingstone to establish objective measures for the clarity of thought during a wide range of mental tasks.

Original languageEnglish
Pages (from-to)574-587
JournalInternational Journal of Healthcare Management
Volume16
Issue number4
DOIs
Publication statusPublished - 31 Dec 2023

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