Classification of periapical radiographic findings for root canal therapy decision support using deep neural networks.

IF 5.5 3区 医学 Q2 MEDICAL INFORMATICS
Roohollah Sharifi, Masoud Amiri
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引用次数: 0

Abstract

Objectives: Recent advancements in deep learning and its applications in oral and dental health have garnered considerable interest. A crucial component of the diagnostic process in everyday clinical practice involves the examination of dental radiographs which artificial intelligence can be a suitable auxiliary tool.

Methods: This study develops a deep learning-based diagnostic support system for classifying periapical radiographic patterns, including findings associated with potential need for endodontic evaluation. We emphasize that radiographic assessment is only one component of comprehensive endodontic diagnosis, which must include clinical examination, patient history, and pulp vitality testing. This study compares seven cutting-edge pre-trained deep learning models (YOLO 11, ResNet-18, VGG-19, AlexNet, EfficientNet, MobileNet V2, LeNet-5) alongside a custom convolutional neural network for classifying periapical radiographs into three categories: Healthy, Decay (caries approaching pulp), and Periapical pathology (RCT-indicated) (periapical pathology suggesting need for root canal treatment).

Results: The dataset comprised 2,641 periapical radiographs from 2,600 patients, split at the patient level into training (65%, n = 1,717), validation (10%, n = 264), and test (25%, n = 660) sets. Model robustness was further confirmed through 5-fold stratified patient-level cross-validation and leave-one-center-out (LOCO) evaluation. YOLO 11 achieved the highest performance with 83.90% accuracy (95% CI: 81.20-86.40%), 83.70% macro F1-score, 84.60% macro precision, and 84.20% macro recall on the independent test set, significantly outperforming VGG-19 (78.10%), MobileNet V2 (77.20%), and other architectures (p < 0.01). The 5-fold patient-level cross-validation yielded a mean accuracy of 84.55% ± 0.85% for YOLO 11, confirming model stability.

Conclusion: This study demonstrates the feasibility of deep learning-based diagnostic support for periapical radiograph classification. While YOLO 11 shows promising performance, this study is limited to data from three imaging centers within a single geographic region (Kermanshah, Iran), and clinical deployment requires external validation on multi-institutional, geographically diverse datasets and prospective trials to establish true generalizability and clinical utility. System should be used only as a second-opinion tool to assist, not replace, comprehensive clinical diagnosis.

基于深度神经网络的根管治疗决策支持的根尖周影像学表现分类。
目标:深度学习的最新进展及其在口腔和牙齿健康方面的应用引起了相当大的兴趣。在日常临床实践中,诊断过程的一个关键组成部分涉及牙科x线片的检查,人工智能可以成为一个合适的辅助工具。方法:本研究开发了一个基于深度学习的诊断支持系统,用于分类根尖周放射学模式,包括与潜在的根管评估需求相关的发现。我们强调放射学评估只是全面牙髓诊断的一个组成部分,它必须包括临床检查、患者病史和牙髓活力测试。本研究比较了7种先进的预训练深度学习模型(YOLO 11、ResNet-18、VGG-19、AlexNet、EfficientNet、MobileNet V2、LeNet-5)和自定义卷积神经网络,将根尖周x线片分为三类:健康、龋坏(龋靠近牙髓)和根尖周病理(rct提示)(根尖周病理提示需要根管治疗)。结果:数据集包括2,600名患者的2,641张根尖周x线片,在患者水平上分为训练组(65%,n = 1,717),验证组(10%,n = 264)和测试组(25%,n = 660)。通过5倍分层患者水平交叉验证和留一中心(LOCO)评估进一步证实了模型的稳健性。YOLO 11在独立测试集上达到了83.90%的准确率(95% CI: 81.20-86.40%)、83.70%的宏f1评分、84.60%的宏精度和84.20%的宏召回率,显著优于VGG-19(78.10%)、MobileNet V2(77.20%)等架构。(p)结论:本研究证明了基于深度学习的根尖周x线片分类诊断支持的可行性。虽然YOLO 11显示出良好的性能,但该研究仅限于来自单一地理区域(伊朗Kermanshah)的三个成像中心的数据,并且临床部署需要对多机构,地理上不同的数据集和前瞻性试验进行外部验证,以建立真正的通用性和临床实用性。该系统仅应作为辅助而非替代全面临床诊断的第二意见工具。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
7.20
自引率
5.70%
发文量
297
审稿时长
1 months
期刊介绍: BMC Medical Informatics and Decision Making is an open access journal publishing original peer-reviewed research articles in relation to the design, development, implementation, use, and evaluation of health information technologies and decision-making for human health.
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