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Table 16 Summary of previous works for automated detection of normal and epileptic classes

From: Performance analysis of wavelet transforms and morphological operator-based classification of epilepsy risk levels

Authors

Features

Classifier

Accuracy (%)

Nigam and Graupe [35]

Nonlinear preprocessing filter

Diagnostic neural network

97.20

Kannathal et al. [37]

Entropy measures adaptive neuro-fuzzy

Inference system (ANFIS)

92.22

Srinivasan et al. [38]

Time andfrequency domain

Features Elman network

99.60

Sadati et al. [39]

DWT adaptive neural

Fuzzy network

85.90

Subasi [42]

DWT statistical measures

Mixture expert model (a modular neural network)

94.50

Polat and Gunes [43]

FFT-based features

Decision tree

98.72

Tzallas et al. [41]

Time-frequency methods

Artificial neural network

97.72 to 100

Srinivasan et al. [40]

ApEn

Probabilistic neural network, Elman network

100

Polat and Gunes [44]

FFT-based features

Artificial immune recognition system

100

Polat and Gunes [45]

AR C4.5

Decision tree classifier

99.32

Ocak [46]

DWT-ApEn

Thresholding

96.65

Guo et al. [47]

Relative wavelet energy

ANN

95.85

Guo et al. [48]

ApEn and wavelet Transform

ANN

99.85

Guo et al. [49]

Line length features and wavelet transform

ANN

99.60

Subasi and Gursoy [51]

DWT-PCA, ICA, LDA

SVM

98.75(PCA)

99.50(ICA)

100(LDA)

Ubeyli [52]

AR

SVM

99.56

Lima et al. [53]

Wavelet transform

SVM

100

Guo et al. [50]

Genetic programming based

KNN

99

Wang et al. [54]

Wavelet packet entropy

KNN

100

Iscan et al. [55]

Cross correlation and PSD

Several classifiers including SVM

100

Proposed method by authors Harikumar

dB2 wavelet hard thresholding

SVD

98.03