Table 3. Main features of surveyed studies using machine learning algorithms in oral medicine and maxillofacial surgery.
Dentistry field | Application | Data set | Machine learning algorithms | Performance |
---|---|---|---|---|
Oral medicine and maxillofacial surgery | Diagnosis and classification of dental periapical cyst lesions and keratocystic odontogenic tumor through decision support system Yilmaz et al. [43] (2017) |
50 CBCTa 3D images obtained from 50 patients | k-NNb, Naive Bayes, DTc, Random forest , ANNsd, and SVMe | Best accuracy (SVM) : 96.0% |
|
||||
Diagnosis and classification of radiolucent lesions in the mandible on panoramic radiographs Ariji et al.[23] (2019) |
210 panoramic radiographs images with mandibular radiolucent lesions | CNNsf | Seg: 0.88 | |
|
||||
Diagnosis for cases of orthognathic surgery Choi et al. [79] (2019) |
316 cases | ANNs | Success rate (surgery/non-surgery diagnosis): 96% ICCh: 0.97- 0.99 | |
|
||||
Develop an intelligent automated system to support specialists for differential diagnosis in oral medicine Ehtesham et al. [24] (2019) |
500 cases of six principal axes of oral diseases | CBRi | Success rate: 76.9 % | |
|
||||
Predict perioperative blood loss prior to orthognathic surgery Stehrer et al. [78] (2019) |
950 patients | Random forest | MDj:7.4 ml, SDk: 172.3 ml, p < 0.001 | |
|
||||
Automatic classification of dental artifact status for efficient image veracity checks Welch et al. [51] (2019) |
1538 head and neck planning CBCT images | CNNs | AUCl: 0.91±0.01 | |
|
||||
Detection and segmentation of the mental foramen Kats et al. [74] (2020) |
112 digital panoramic radiographs | CNNs | Precision: 71.13%, recall:68.24% | |
|
||||
Diagnosis of odontogenic cysts and tumors of both jaws on panoramic radiographs Kwon et al. [71] (2020) |
1282 panoramic radiographs (350 dentigerous cysts, 302 periapical cysts, 300 odontogenic keratocysts, 230 ameloblastomas, and 100 normal jaws with no disease | CNNs | Se: 88.9%, Spm: 97.2%, accuracy: 95.6%, and AUC: 0.94, (augmented data set) | |
|
||||
Diagnosis of odontogenic cystic lesions Lee et al. [44] (2020) |
2126 images, including 1140 (53.6%) panoramic and 986 (46.4%) CBCT images | CNNs | AUC: 0.914, Se: 96.1%, Sp:77.1% | |
|
||||
Develop a method for automated dental segmentation of panoramic dental images for diagnostic purposes Lee et al. [75] (2020) |
846 images with tooth annotations from panoramic radiographs | CNNs | F1-score: 0.875, precision: 0.858, recall: 0.893, IoUn:0.877 | |
|
||||
Classification of head and neck computed tomography images to detect the presence of dental artifacts that affect the visualization of structures Welch et al. [76] (2020) |
1538 computed tomography images | CNNs | AUC: 0.92±0.03 | |
|
||||
Classification of maxillary sinus lesions compared to healthy maxillary sinuses Kuwana et al. [77] (2021) |
Imaging data for healthy maxillary sinuses (587 sinuses), inflamed maxillary sinuses (416 sinuses), cysts of maxillary sinus regions (171 sinuses) | Accuracy, Se and Sp: , 90-91%, 88-85%, and 91-96% (diagnosis maxillary sinusitis); 97-100%, 80-100%, and 100% (cysts of the maxillary sinus regions) |
CBCT: Cone beam computed tomography;
k-NN: k-nearest neighbors;
DT: Decision tree;
ANNs: Artificial neural networks;
SVM: Support vector machine;
CNN: Convolutional neural networks;
Se: Sensibility;
ICC: Intraclass correlation;
CBR: Case-based reasonig;
MD: Mean absolute difference;
SD: Standard deviation;
AUC: Area under receiver operating curve;
Sp: Specificity;
IoU: Intersection-over-union.