Table 3.
Authors | Reference | Year | Country | AI Algorithm Model | The Purpose of AI Algorithm | Image (Datasets) Recourse |
No. of Images in Datasets |
Types of Images | Accuracy/ Precision (%) |
Sensitivity/Recall (%) | Specificity (%) |
---|---|---|---|---|---|---|---|---|---|---|---|
Filho et al. | [51] | 2018 | Germany | Structural Co-occurrence matrix | Classification of melanoma | ISIC-2016, 2017, PH2 |
3100 | Dermoscopy | 89.93–99 | 89.9–99.2 | 95.15–99.4 |
Marchetti et al. | [89] | 2018 | USA | Non-learned approaches and machine learning methods | Classification of melanoma and comparison of the performance of AI model with 8 dermatologists | ISIC-2016 | 1279 | Dermoscopy | 85–86 | 46–70 | 88–92 |
Roffman et al. | [94] | 2018 | USA | Artificial neural network | Detection of non-melanoma skin cancer | NHIS 1997–2015 | 462,630 | Macroscopy | 81 | 86.2–88.5 | 62.2–62.7 |
Alzubaidi | [95] | 2021 | Australia | Transfer learning model | Discrimination of skin cancer and normal skin | ISIC-2016–2020, Med- Node, Dermofit |
>200,000 | Dermoscopy | 89.69–98.57 | 85.60–97.90 | N/A |
Guimarães et al. | [96] | 2020 | Germany | Convolutional neural networks | Diagnosis of atopic dermatitis | Multiphoton tomography Images | 3663 | Multiphoton tomograph | 97.0 ± 0.2 | 96.6 ± 0.2 | 97.7 ± 0.3 |
Ho. et al. | [97] | 2020 | USA | Deep neural network | Image segmentation of plexiform neurofibromas | MRI images | 35 | MRI | N/A | N/A | N/A |
Fink et al. | [98] | 2018 | Germany | Edge-preserving thresholding automated shape recognition | Classification of psoriasis and measurement of lesion area andseverity index | Clinical images | 10 patients | Macroscopy | N/A | N/A | N/A |
Fink et al. | [99] | 2019 | Germany | Edge-preserving thresholding automated shape recognition | Validation of the precision and reproducibility of algorithm in PASI measurements | Clinical images | 120 patients |
Macroscopy | N/A | N/A | N/A |
Schnuerle et al. | [100] | 2017 | Switzerland | Support vector machines | Detection of hand eczema | Clinical images | N/A | Macroscopy | 74.5–89.29 | 48–71.43 | 77.24–93.63 |
Gao et al. | [101] | 2020 | Chinas | Deep learning network architecture (ResNet-50) | Detection for fungal skin lesion | Clinical images | 292 | Macroscopy | N/A | 95.2–99.5 | 91.4–100 |
Bashat et al. | [102] | 2018 | Israel | N/A | Differentiation of benign and malignant neurofibroma | MRI images | 30 | MRI | 80 | 72 | 87 |
Duarte et al. | [103] | 2014 | Portugal | Support vector machines | Classification of whole-brain grey and white matter of MRI between NF1 patients and normal person | T1-weighted MRI scans | 99 | MRI Images | 94 | 92 | 96 |
Meienberger et al. | [104] | 2019 | Switzerland | Convolutional neural networks (Net 16) | Establishment of an accurate and objective psoriasis assessment method | Clinical images | 203 | Macroscopy | 92 | N/A | N/A |
Gustafson et al. | [105] | 2017 | USA | Electronic health record based phenotype algorithm | Identification of atopic dermatitis and comparison of the performance of AI model with 4 dermatologists | Clinical images | 562 | N/A | N/A | 53.6–75 | N/A |
Luo et al. | [106] | 2020 | China | Cycle-consistent adversarial networks | Classification of vitiligo skin lesion | Clinical Images | 80,000 | Macroscopy | 85.69 | 80.73 | 66.2 |
Makena et al. | [107] | 2019 | USA | Convolutional neural networks | Segmentation of vitiligo skin lesion | RGB images of vitiligo lesions | 308 | Macroscopy (UV/natural light) | 74–88.7 | N/A | N/A |