Zaborowicz Katarzyna, Zaborowicz Maciej, Cieślińska Katarzyna, Daktera-Micker Agata, Firlej Marcel, Biedziak Barbara
Department of Orthodontics and Facial Malformations, Poznan University of Medical Sciences, Bukowska 70, 60-812 Poznań, Poland.
Department of Biosystems Engineering, Poznan University of Life Sciences, Wojska Polskiego 50, 60-627 Poznań, Poland.
J Clin Med. 2025 May 7;14(9):3262. doi: 10.3390/jcm14093262.
Artificial intelligence (AI) is playing an increasingly important role in everyday dental practice and diagnosis, especially in the area of analysing digital pantomographic images. Through the use of innovative and modern algorithms, clinicians can more quickly and accurately identify pathological changes contained in digital pantomographic images, such as caries, periapical lesions, cysts, and tumours. It should be noted that pantomographic images are one of the most commonly used imaging modalities in dentistry, and their digital analysis enables the construction of AI models to support diagnosis. This paper presents a systematic narrative review of studies included in scientific articles from 2020 to 2025, focusing on three main diagnostic areas: detection of caries, periapical lesions, and cysts and tumours. The results show that neural network models, such as U-Net, Swin Transformer, and CNN, are most commonly used in caries diagnosis and have achieved high performance in lesion identification. In the case of periapical lesions, AI models such as U-Net and Decision Tree also showed high performance, surpassing the performance of young dentists in assessing radiographs in some cases. The studies cited in this review show that the diagnosis of cysts and tumours, on the other hand, relies on more advanced models such as YOLO v8, DCNN, and EfficientDet, which in many cases achieved more than 95% accuracy in the detection of this pathology. The cited studies were conducted at various universities and institutions around the world, and the databases (case databases) analysed in this work ranged from tens to thousands of images. The main conclusion of the literature analysis is that, thanks to its accessibility, speed, and accuracy, AI can significantly assist the work of physicians by reducing the time needed to analyse images. However, despite the promising results, AI should only be considered as an enabling tool and not as a replacement for the knowledge of doctors and their long experience. There is still a need for further improvement of algorithms and further training of the network, especially in identifying more complex clinical cases.
人工智能(AI)在日常牙科实践和诊断中发挥着越来越重要的作用,尤其是在分析数字化全景图像领域。通过使用创新的现代算法,临床医生可以更快、更准确地识别数字化全景图像中包含的病理变化,如龋齿、根尖周病变、囊肿和肿瘤。需要注意的是,全景图像是牙科中最常用的成像方式之一,对其进行数字化分析能够构建人工智能模型以支持诊断。本文对2020年至2025年科学文章中包含的研究进行了系统的叙述性综述,重点关注三个主要诊断领域:龋齿、根尖周病变以及囊肿和肿瘤的检测。结果表明,神经网络模型,如U-Net、Swin Transformer和卷积神经网络(CNN),在龋齿诊断中最常被使用,并且在病变识别方面取得了高性能。对于根尖周病变,U-Net和决策树等人工智能模型也表现出高性能,在某些情况下超过了年轻牙医评估X光片的表现。另一方面,本综述引用的研究表明,囊肿和肿瘤的诊断依赖于更先进的模型,如YOLO v8、深度卷积神经网络(DCNN)和高效检测器(EfficientDet),这些模型在许多情况下对这种病理的检测准确率超过95%。引用的研究在世界各地的不同大学和机构进行,本研究分析的数据库(病例数据库)包含的图像数量从几十张到数千张不等。文献分析的主要结论是,由于其可及性、速度和准确性,人工智能可以通过减少分析图像所需的时间,显著协助医生的工作。然而,尽管取得了令人鼓舞的结果,但人工智能应仅被视为一种辅助工具,而不能替代医生的知识和长期经验。算法仍需进一步改进,网络也需要进一步训练,特别是在识别更复杂的临床病例方面。