Table 9.
Best results of this study compared to previous studies in the classification of different types of myocardial infarction (classification of myocardial infarction)
Researcher | Year | Method | Database | Specificity (%) | Accuracy (%) | Sensitivity (%) |
---|---|---|---|---|---|---|
Lui and Chow[11] | 2018 | Classification using convolutional neural networks and recursive neural networks | PhysioNet PTB | 97.2 | 92.4 | 97.7 |
Chang et al.[12] | 2012 | Extracted statistical, HMM and GMM features Classification based on Markov and Gaussian models |
Clinical ECG data | 79.82 | 82.50 | 85.71 |
Safdarian et al.[28] | 2014 | Extracted T-wave integral and total integral of one ECG cycle features Classification using PNN, KNN, MLP neural network, naive bayes methods |
PhysioNet PTB | - | 76.67 | - |
Baloglu et al.[13] | 2019 | Classification based on deep neural networks | PhysioNet PTB | - | 99 | - |
Proposed method | 2020 | GOA-SVM-liner | 100±0 | 75.5±0.2 | 100 | |
GOA-SVM-RBF | PhysioNet PTB | 98.72±0.02 | 80±0.02 | 100±0 | ||
GOA-SVM-polynomial | 97.37±0 | 94.2±0.2 | 100±0 |
PTB – Physikalisch-Technische Bundesanstalt; SVM – Support vector machine; GOA – Grasshopper optimization algorithm; ECG – Electrocardiogram; PNN – Probabilistic neural network; KNN – K-nearest neighbor; MLP – Multilayer perceptron; HMM – Hidden Markov model; GMM – Gaussian mixture model, RBF – Radial basis function