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研究生: 范日光
Pham, Nhat Quang
論文名稱: 基於可拓神經網絡進行牙齒矯正分類自動診斷之初步研究
Preliminary automatic diagnosis of the orthodontic treatment need using Extension Neural Network
指導教授: 郭榮富
Kuo, Rong-Fu
學位類別: 碩士
Master
系所名稱: 工學院 - 生物醫學工程學系
Department of BioMedical Engineering
論文出版年: 2021
畢業學年度: 109
語文別: 英文
論文頁數: 107
外文關鍵詞: Orthodontic malocclusion, Orthodontic diagnosis, IOTN, Artificial Intelligence, Extension Neural Network, Orthodontic Photography, Orthodontic intraoral images, Automatic examination
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  • According to FDI World Dental Federation, the definition of oral health is “multi-faceted and includes the ability to speak, smile, smell, taste, touch, chew, swallow and convey a range of emotions through facial expressions with confidence and without pain, discomfort and disease of the craniofacial complex” (World Dental Federation 2016). Hence there is a close relationship between malocclusion in orthodontics and oral health. Malocclusion can affect oral health by increasing the incidence of cavities, periodontitis, increasing the risk of injury and difficulty chewing, swallowing, breathing and speaking, not only that, it also affects aesthetics, self-image, communication and even career advancement. In this study, we used the Index of Orthodontic Treatment Need (IOTN) - the rating system used to assess the need of orthodontic treatment on dental health grounds of UK National Health Service (NHS) to develop the classification criteria for orthodontic malocclusion, based on analysis and labelling of 2510 intraoral images (follow IMI National Guidelines Orthodontic Photography) of 502 patients aged between 12 and 30 years old had completed permanent teeth growth who visited for orthodontic check-up in Hanoi. The research process of extracting essential features from intraoral images is presented in this study. The malocclusion levels of each feature are also labelled with the values based on extension theory. Then we used Extension Neural Network which combines extension theory and neural network to help the process of classifying the Orthodontic treatment needs through intraoral images faster and more accurately, saving time for the orthodontists. The automatic imaging diagnosis is becoming a promising diagnostic method for orthodontics. It can provide important and objective diagnostics for both the physician and the patient and directly affects the determination of the need for treatment and insurance coverage, reduce the time and workload of the clinical check-up.

    TABLE OF CONTENT ABSTRACT i ACKNOWLEDGE ii TABLE OF CONTENT iii LIST OF TABLES vi LIST OF FIGURES viii CHAPTER 1. LITERATURE REVIEW 1 1.1 The need of Orthodontic Treatment 1 1.2 The Index of Orthodontic Treatment Need (IOTN) 3 1.3 Artificial Intelligence and its applications in the medical field 7 1.4 Extension theory 10 1.5 Feature engineering 11 1.6 Extension Neural Network (ENN) 13 CHAPTER 2. UNSOLVED PROBLEMS 18 2.1 Accuracy improvement 18 2.2 Is the five-view approach good enough? 20 2.3. Feature conversion from IOTN is difficult? 21 2.4. The selection of AI algorithm for analysis based on small data size 22 2.5. Do we need a new classification index? 24 CHAPTER 3. MATERIALS AND METHODS 26 3.1. Guidelines to collect orthodontic intraoral images 26 3.2. Determine the classifiable orthodontic features via 5 views of intraoral images 33 3.3. Create new classification index based on IOTN 35 3.4. Transform the orthodontic features to ratio data type 42 3.5. IOTN assessment by label from clinical experts 74 3.6. IOTN classification by using ENN 74 CHAPTER 4. RESULTS 76 4.1. The value measurement of each feature 76 4.1.1 The value measurement of each feature in class 1 group 76 4.1.2 The value measurement of each feature in class 2 group 77 4.1.3 The value measurement of each feature in class 3 group 78 4.1.4 The value measurement of each feature in class 4 group 78 4.1.5 The value measurement of each feature in class 5 group 79 4.1.6 The value measurement of each feature in class 6 group 80 4.1.7 The value measurement of each feature in class 7 group 81 4.2. Results of the modified IOTN classification 82 4.2.1 The classification score of each feature in class 1 group 82 4.2.2 The classification score of each feature in class 2 group 83 4.2.3 The classification score of each feature in class 4 group 84 4.2.4 The classification score of each feature in class 5 group 85 4.2.5 The classification score of each feature in class 6 group 86 4.2.6 The classification score of each feature in class 7 group 87 4.3. Feature contribution of each class group: 88 4.3.1 Feature contribution of class 1 group 88 4.3.2 Feature contribution of class 2 group 88 4.3.3 Feature contribution of class 4 group 89 4.3.4 Feature contribution of class 5 group 89 4.3.5 Feature contribution of class 6 group 90 4.3.6 Feature contribution of class 7 group 90 4.4. The accuracy of ENN model 91 CHAPTER 5. DISCUSSION 92 CHAPTER 6. CONCLUSION 102 REFERENCES 103

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