Advanced AI techniques for root disease classification in dental X-rays using deep learning and metaheuristic approach

Prem Enkvetchakul , Surajet Khonjun , Rapeepan Pitakaso , Thanatkij Srichok , Peerawat Luesak , Chutchai Kaewta , Sarayut Gonwirat , Chawis Boonmee , Matus Noowattana , Thitinon Srisuwandee
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Abstract

Root dental diseases remain among the most diagnostically challenging conditions in oral healthcare, often leading to treatment delays and suboptimal outcomes. This study is motivated by the limitations of existing automated diagnostic systems, which tend to focus on superficial abnormalities and overlook complex root pathologies such as pulpal infections, periapical lesions, and progressive periodontitis. To bridge this critical gap, we propose an advanced AI-based classification model that integrates ensemble deep learning architectures with a hybrid metaheuristic optimization strategy-namely, the non-population-based Artificial Multiple Intelligence System (np-AMIS) for image augmentation and the population-based AMIS (pop-AMIS) for adaptive decision fusion. This dual-phase approach enhances feature diversity, classification robustness, and computational efficiency. The model was trained and validated on two proprietary datasets, TD-1 and TD-2, achieving classification accuracies of 98.87 % and 98.41 %, respectively. It was further implemented in a real-world application via the Automated Teeth Disease and Abnormality Classification System (A-TD-A-CS), demonstrating 98.95 % accuracy, a rapid response time of 1.5 s, and a System Usability Scale (SUS) score of 94.5 from dental professionals. The system's ability to accurately identify multiple root disease categories highlights its clinical viability and transformative potential. In addition to its current performance, this study lays the groundwork for future extensions to multi-center datasets and cross-modality diagnostics using cone-beam CT or intraoral scans, further advancing intelligent dental care.
使用深度学习和元启发式方法在牙科x射线中进行牙根疾病分类的先进AI技术
牙根病仍然是口腔保健中诊断最具挑战性的疾病之一,往往导致治疗延误和次优结果。现有的自动诊断系统往往只关注表面的异常,而忽略了复杂的牙根病理,如牙髓感染、根尖周病变和进行性牙周炎,这是本研究的动机。为了弥补这一关键差距,我们提出了一种先进的基于人工智能的分类模型,该模型将集成深度学习架构与混合元启发式优化策略相结合,即用于图像增强的非基于种群的人工多智能系统(np-AMIS)和用于自适应决策融合的基于种群的人工多智能系统(pop-AMIS)。这种双阶段方法增强了特征多样性、分类稳健性和计算效率。该模型在TD-1和TD-2两个专有数据集上进行了训练和验证,分类准确率分别达到98.87%和98.41%。通过自动牙齿疾病和异常分类系统(a - td - a - cs)在实际应用中进一步实现,准确率为98.95%,快速响应时间为1.5 s,牙科专业人员的系统可用性量表(SUS)得分为94.5分。该系统准确识别多种牙根疾病类别的能力突出了其临床可行性和变革潜力。除了目前的性能,本研究为未来扩展到多中心数据集和使用锥束CT或口内扫描的跨模态诊断奠定了基础,进一步推进智能牙科保健。
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CiteScore
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