Electroencephalography Simulation Hardware for Realistic Seizure, Preseizure and Normal Mode Signal Generation

Mohamed, Shakir and Qidwai, Uvais and Malik, Aamir Saeed and Kamel , Nidal (2015) Electroencephalography Simulation Hardware for Realistic Seizure, Preseizure and Normal Mode Signal Generation. Journal of Medical Imaging and Health Informatics.

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Abstract

Unlike the ECG and EKG simulators which are very commonly used for these applications, there is a big
need for seizure related EEG simulator. Having a hardware system that can be used instead of a real
patient to generate realistic EEG signals is still in research phase. Here a framework is presented that can
be used to realize EEG simulator in a pseudo-embedded form. This implies that the analog output depends
on real patient data. The proposed hardware simulator will enhance researchers and hardware validators
to simulate, validate and test their detection algorithms forehand, as well as for clinicians to use this
system for training as well as for academic exercises. By utilizing significant spectral contents of real
patient data, a simulated signal can be reproduced any time and can be modified for the seizure and preseizure
cases by utilizing the model coefficients identified through standard ARMA system identification
technique. A novel work has been done in producing simulated data based on empirical models of the real
waveforms. Such a simulator will be very helpful in EEG related research since all the initial algorithms can
be tuned to the controlled data first before going to the actual human subjects. Unlike the commercial ECG
simulators, to the best of our knowledge, there is no such commercially available system that can be used
for such research tasks. With controlled data types, healthy/normal, seizure and pre-seizure classes, tuning
of algorithms for detection and classification applications can be attained. The model has been validated
and tested with respect to accuracy of correct regeneration, false prediction rate, specificity, sensitivity and
false detection rate.

Item Type: Article
Impact Factor: 0.503
Uncontrolled Keywords: ARMA MODEL; BIO-SIGNAL SIMULATOR; EEG SIMULATOR; PRE-SEIZURE; SEIZURE; SYSTEM IDENTIFICATION
Subjects: Q Science > Q Science (General)
T Technology > T Technology (General)
Departments / MOR / COE: Departments > Electrical & Electronic Engineering
Research Institutes > Institute for Health Analytics
Depositing User: Dr Aamir Saeed Malik
Date Deposited: 07 Oct 2016 01:42
Last Modified: 07 Oct 2016 01:42
URI: http://scholars.utp.edu.my/id/eprint/11802

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