Man Hung, Daniel Yevseyevich, Milan Khazana, Connor Schwartz, Martin S Lipsky
{"title":"绘制新领域:人工智能在全景成像龋齿检测中的应用。","authors":"Man Hung, Daniel Yevseyevich, Milan Khazana, Connor Schwartz, Martin S Lipsky","doi":"10.3390/dj13080366","DOIUrl":null,"url":null,"abstract":"<p><p><b>Introduction:</b> Dental caries remains a public health concern, and early detection prevents its progression and complications. Panoramic radiographs are essential diagnostic tools, yet the interpretation of panoramic X-rays varies among practitioners. Artificial intelligence (AI) presents a promising approach to enhance diagnostic accuracy in detecting dental caries. This scoping review examines the current literature on the use of AI programs to analyze panoramic radiographs for the diagnosis of dental caries. <b>Methods:</b> This scoping review searched PubMed, Scopus, Web of Science, and Dentistry and Oral Sciences Source, adhering to PRISMA guidelines. The review included peer-reviewed, original research published in English that investigated the use of AI to diagnose dental caries. Data were extracted on the AI model characteristics, advantages, disadvantages, and diagnostic performance. <b>Results:</b> Seven studies met the inclusion criteria. The Deep Learning Model achieved the highest performance (specificity 0.9487, accuracy 0.9789, F1 score 0.9245), followed by Diagnocat and Tooth Type Enhanced Transformer. Models such as CranioCatch and CariSeg showed moderate performance, while the Dental Caries Detection Network demonstrated the lowest. Benefits included improved diagnostic support and workflow efficiency, while limitations involved dataset biases, interpretability challenges, and computational demands. <b>Conclusions:</b> Applying AI technologies to panoramic X-rays demonstrates the potential for enhancing caries diagnosis, with some models achieving near-expert performance. However, future research must address the generalizability, transparency, and integration of AI models into clinical practice. Future research should focus on diverse training datasets, explainable AI development, clinical validation, and incorporating AI training into dental education and training.</p>","PeriodicalId":11269,"journal":{"name":"Dentistry Journal","volume":"13 8","pages":""},"PeriodicalIF":3.1000,"publicationDate":"2025-08-12","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC12385533/pdf/","citationCount":"0","resultStr":"{\"title\":\"Charting New Territory: AI Applications in Dental Caries Detection from Panoramic Imaging.\",\"authors\":\"Man Hung, Daniel Yevseyevich, Milan Khazana, Connor Schwartz, Martin S Lipsky\",\"doi\":\"10.3390/dj13080366\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><p><b>Introduction:</b> Dental caries remains a public health concern, and early detection prevents its progression and complications. Panoramic radiographs are essential diagnostic tools, yet the interpretation of panoramic X-rays varies among practitioners. Artificial intelligence (AI) presents a promising approach to enhance diagnostic accuracy in detecting dental caries. This scoping review examines the current literature on the use of AI programs to analyze panoramic radiographs for the diagnosis of dental caries. <b>Methods:</b> This scoping review searched PubMed, Scopus, Web of Science, and Dentistry and Oral Sciences Source, adhering to PRISMA guidelines. The review included peer-reviewed, original research published in English that investigated the use of AI to diagnose dental caries. Data were extracted on the AI model characteristics, advantages, disadvantages, and diagnostic performance. <b>Results:</b> Seven studies met the inclusion criteria. The Deep Learning Model achieved the highest performance (specificity 0.9487, accuracy 0.9789, F1 score 0.9245), followed by Diagnocat and Tooth Type Enhanced Transformer. Models such as CranioCatch and CariSeg showed moderate performance, while the Dental Caries Detection Network demonstrated the lowest. Benefits included improved diagnostic support and workflow efficiency, while limitations involved dataset biases, interpretability challenges, and computational demands. <b>Conclusions:</b> Applying AI technologies to panoramic X-rays demonstrates the potential for enhancing caries diagnosis, with some models achieving near-expert performance. However, future research must address the generalizability, transparency, and integration of AI models into clinical practice. 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引用次数: 0
摘要
简介:龋齿仍然是一个公共卫生问题,早期发现可以防止其发展和并发症。全景x光片是必不可少的诊断工具,然而全景x光片的解释在从业者之间有所不同。人工智能(AI)是提高龋病诊断准确性的一种很有前途的方法。本文综述了目前关于使用人工智能程序分析全景x线片诊断龋齿的文献。方法:根据PRISMA指南,检索PubMed、Scopus、Web of Science和Dentistry and Oral Sciences Source。这篇综述包括了用英文发表的同行评审的原创研究,这些研究调查了使用人工智能诊断龋齿的情况。提取人工智能模型的特征、优缺点和诊断性能的数据。结果:7项研究符合纳入标准。深度学习模型(Deep Learning Model)的诊断效果最高(特异性0.9487,准确率0.9789,F1评分0.9245),其次为诊断猫(Diagnocat)和齿型增强变压器(Tooth Type Enhanced Transformer)。CranioCatch和CariSeg等模型表现中等,而龋齿检测网络表现最差。优点包括改进的诊断支持和工作流程效率,而限制包括数据集偏差、可解释性挑战和计算需求。结论:将人工智能技术应用于全景x射线显示了增强龋齿诊断的潜力,一些模型达到了接近专家的水平。然而,未来的研究必须解决人工智能模型在临床实践中的普遍性、透明度和整合问题。未来的研究应侧重于多样化的训练数据集、可解释的人工智能开发、临床验证以及将人工智能训练纳入牙科教育和培训。
Charting New Territory: AI Applications in Dental Caries Detection from Panoramic Imaging.
Introduction: Dental caries remains a public health concern, and early detection prevents its progression and complications. Panoramic radiographs are essential diagnostic tools, yet the interpretation of panoramic X-rays varies among practitioners. Artificial intelligence (AI) presents a promising approach to enhance diagnostic accuracy in detecting dental caries. This scoping review examines the current literature on the use of AI programs to analyze panoramic radiographs for the diagnosis of dental caries. Methods: This scoping review searched PubMed, Scopus, Web of Science, and Dentistry and Oral Sciences Source, adhering to PRISMA guidelines. The review included peer-reviewed, original research published in English that investigated the use of AI to diagnose dental caries. Data were extracted on the AI model characteristics, advantages, disadvantages, and diagnostic performance. Results: Seven studies met the inclusion criteria. The Deep Learning Model achieved the highest performance (specificity 0.9487, accuracy 0.9789, F1 score 0.9245), followed by Diagnocat and Tooth Type Enhanced Transformer. Models such as CranioCatch and CariSeg showed moderate performance, while the Dental Caries Detection Network demonstrated the lowest. Benefits included improved diagnostic support and workflow efficiency, while limitations involved dataset biases, interpretability challenges, and computational demands. Conclusions: Applying AI technologies to panoramic X-rays demonstrates the potential for enhancing caries diagnosis, with some models achieving near-expert performance. However, future research must address the generalizability, transparency, and integration of AI models into clinical practice. Future research should focus on diverse training datasets, explainable AI development, clinical validation, and incorporating AI training into dental education and training.