Table 1.
Literature review of the recent works in ET/PD classification.
References | Goal | Dataset | Method | Results |
---|---|---|---|---|
Hossen et al.23 | ET/PD classification | Accelerometer data, [19 PD, 21 ET] for training and [20 PD, 20 ET] for testing | Statistical Signal Characterization performed on the spectral domain of tremor signals | Accuracy = 90% |
Ghassemi et al.31 | ET/PD classification | Electromyogram and accelerometer data, [13 PD, 11 ET] for training and testing | Classification of Wavelet features with Support Vector Machines (SVM) | Accuracy = 83% |
Brzan et al.49 | ET/PD Classificclassificationation | Electromyogram data [27 PD, 27 ET] for training and testing | A set of statistical and physiological features classified with decision tree | Accuracy = 94% |
DiBiase et al.15 | ET/PD classification | Accelerometer data, [16 PD, 20 ET] for training and [55] for testing | Analysis in spectral domain | Accuracy = 92%, Sensitivity = 95%, Specificity = 95% |
Barrantes et al.50 | ET/PD/Healthy classification | Accelerometer data, [17 PD, 16 ET, 12 healthy, 7 unknown] | Spectral analysis of the signals | Accuracy=84.38% |
Molparia et al.51 | ET/PD classification | Accelerometer data and genetic profiles, [40 PD, 27 ET] for training and testing | Statistical properties of signal along with genomics data | Sensitivity = 76%, Specificity = 65% |
Locatelli et al.52 | ET/PD classification | Low power wearable device, [17 PD, 7 ET] for training and testing | Various machine learning techniques | Accuracy= |
Moon et al.53 | ET/PD classification | Gain and balance characteristics, [524 PD, 43 ET] for training and testing | Hand-crafted features and classical ML | Accuracy = |
Dugue et al.54 | ET/PD classification | Accelerometer data, [17 PD, 16 ET, 12 Healthy, 7 inconclusive] | Spectral features and various ML techniques | Accuracy = |