Table 2.
Summary of the application of AI in the renal ultrasound for prediction of the kidney function.
| Task | Algorithms | Data source | Size | Results | Ref. |
|---|---|---|---|---|---|
| Prediction of the kidney function | Decisive area-proportional, textural features and SVM techniques | non-diabetics, non- acute renal failure, non-polycystic kidney disease, non-hydronephrosis, non-inpatient, and age between 18 to 75 years old | 798 images | left-kidney: ACC=71% right-kidney: ACC=76% combining: ACC=70% |
(33) |
| The neural network architecture consists of 33 residual blocks as CNN-based feature extractors, and three fully connected layers of 512, 512, and 256 neurons as regressors | the view of the maximum observable kidney length | 4505 images | ACC=86% | (34) | |
| 5 ML algorithms (Nu-Support Vector Classification, C- Support Vector Classification, Random Forest, Adaptive boosting, and Xtreme gradient boosting) based on radiomics | clinical medical records of patients who underwent renal transplantation | 233 patients | AUC=0.79-0.84 | (35) |
SVM, support vector machine; CNN, convolutional neural network; ML, machine learning; ACC, accuracy; AUC, the area under the receiver operating characteristic curve.