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. 2021 Jul 30;7(4):523–539.

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)
a

CBCT: Cone beam computed tomography;

b

k-NN: k-nearest neighbors;

c

DT: Decision tree;

d

ANNs: Artificial neural networks;

e

SVM: Support vector machine;

f

CNN: Convolutional neural networks;

g

Se: Sensibility;

h

ICC: Intraclass correlation;

i

CBR: Case-based reasonig;

j

MD: Mean absolute difference;

k

SD: Standard deviation;

l

AUC: Area under receiver operating curve;

m

Sp: Specificity;

n

IoU: Intersection-over-union.