Table 4.
Authors/Years | Type of Study | Type of AI | Materials and Methods | Results |
---|---|---|---|---|
Taylor Mason et al., 2023 [63] | Retrospective observational study | ML (LR, RF, SVMs, ANN) | 393 patients, a diverse population. Trained LR, RF, SVM, and ANN on 70% of data, and tested on 30%. Evaluated accuracy and precision for extraction decisions. | High accuracy in predicting tooth extraction decisions. |
Etemad et al., 2021 [64] | Retrospective observational study | ANN, RF | 838 orthodontic patient records. Split into extraction and non-extraction samples. Used 117 clinical and cephalometric variables for ML (RF and MLP) for tooth extraction prediction. | High accuracy in predicting tooth extraction therapy. |
Lee et al., 2022 [66] |
Retrospective observational study | ML (RF, LR) | 196 skeletal class III patients, 136 training, 60 tests. Estimated neural network success rate. Binary classifier for surgical case prediction. | AI is useful for successfully classifying patients up to 90% of candidates for surgery. |
Chaiprasittikul et al., 2023 [67] |
Retrospective observational study | ANN | Analysis of 538 cephalometric radiographs using Detectron2 and ANN. Developed neural network decision support system for orthognathic surgery prediction. | AI is useful for successfully classifying up to 90% of candidates for surgery. |
Prasad et al., 2022 [62] |
Retrospective observational study | ML (extreme gradient boosting, RF, decision tree) | Analyzed 700 orthodontic cases with 33 inputs and 11 outputs. Developed ML models and compared their predictions with expert orthodontist decisions. | The overall accuracy of the models was 84%. |
Jung et al., 2016 [65] |
Retrospective observational study | ANN | Analyzed 156 patients with 12 cephalometric variables, 6 indexes, and 3-bit extraction pattern diagnosis. Created and evaluated ANN. | Effectiveness in assisting professionals in decision-making with success rates of 84–93%. |