Research Article
Finger-Vein Recognition Using Bidirectional Feature Extraction and Transfer Learning
Table 7
Comparison of recognition rates and time consumption of finger-vein recognition experiments under different feature extraction algorithms.
| Paper | Publication year | Feature extraction method | Database | Accuracy rate (%) | Time (s) |
| Qui et al. [36] | 2016 | Dual-sliding window localization + pseudoelliptical transformer + 2D-PCA | FV-USM | 97.02 | — | He and Chen [37] | 2018 | Gabor + uniform + LBP + DBN | FV-USM | 97.93 | 229.23 | Improved Gabor + uniform + LBP + DBN | 98.21 | 235.23 | CNN (max pooling + improved activation function) | 96.43 | — | Ding [38] | 2019 | Double linear Weber local descriptor | FV-USM | 99.25 | 157.74 | Das et al. [39] | 2019 | CNN (proposed CNN) | FV-USM | 97.48 | — | Yuan [40] | 2020 | Multiscale LBP + DBN | FV-USM | 99.59 | 339.40 | In this paper | 2021 | CNN (VGG19) + feature concatenation | A and B FV-USM | 98.00 | 16.88 | CNN (ResNet50) + feature concatenation | 99.67 | 38.42 | CNN (VGG19) + feature concatenation | A and B FV-SIPL | 99.07 | 21.84 | CNN (ResNet50) + feature concatenation | 99.31 | 43.70 |
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