Table 3.
Deep learning method for predicting diabetic foot
| Author | Deep learning method | Purpose | Prediction Result |
|---|---|---|---|
| Amith Khandakar, 2021 [11] | Convolutional Neural Network | Used in the automatic identification and classification of diabetic foot ulcer (DFU) images, it predicts risks by analyzing wound images | Predicting risks through wound image analysis |
| V Sathya Preiya, (2 023) [36] | Recurrent Neural Network | It can capture long-term dependencies in the data, enabling more accurate prediction of the risk of diabetic foot | By inputting data, it outputs a predicted probability value, where a higher probability indicates a higher risk |
| Yufan He, (2021) [37] | Autoencoder | Used for feature extraction, aiding in the discovery of potential variables related to risk | By inputting data, a prediction probability is obtained, and the higher the probability, the greater the risk |
| Manu Goyal, (2020) [38] | Deep Learning Ensemble Methods | Improving overall prediction performance by combining the prediction results of different models | Through processes such as data. preprocessing, model training, and ensemble strategies, a prediction probability value is obtained, and the higher the probability, the greater the risk |
| Jing Zhao, (2022) [39] | Generative Adversarial Networks, GANs | Used for generating high quality simulated data to make the model’s predictions of diabetic foot more accurate | Through data generation and feature enhancement, a prediction probability value is obtained, which categorizes patients into high-risk and low-risk groups |
| Maheswari D, (2024) [40] | Attention Mechanisms | It can improve prediction accuracy, enhance model interpretability, and promote the enhancement of diabetic foot prediction model performance | Different risk characteristics are assigned weights, and a risk probability is obtained based on these weights. The higher the probability, the greater the risk |