Rashid Mardin Othman, Gaghor Shanaz
Oral Diagnosis Department, University of Sulaimani, College of Dentistry, Sulaimani, Iraq.
Dentistry Department, Komar University of Science and Technology, Sulaimani, Iraq.
Medicine (Baltimore). 2025 Jul 25;104(30):e43257. doi: 10.1097/MD.0000000000043257.
Assessing dimensions of available bone throughout hundreds of cone-beam computed tomography cross-sectional images of the edentulous area is time-consuming, focus-demanding, and prone to variability and mistakes. This study aims for a clinically applicable artificial intelligence-based automation system for available bone quantity assessment and providing possible surgical and nonsurgical treatment options in a real-time manner. YOLOv8-seg, a single-stage convolutional neural network detector, has been used to segment mandibular alveolar bone and the inferior alveolar canal from cross-sectional images of a custom dataset. Measurements from the segmented mask of the bone and canal have been calculated mathematically and compared with manual measurements from 2 different operators, and the time for the measurement task has been compared. Classification of bone dimension with 25 treatment options has been automatically suggested by the system and validated with a team of specialists. The YOLOv8 model achieved significantly accurate improvements in segmenting anatomical structures with a precision of 0.951, recall of 0.915, mAP50 of 0.952, Intersection over Union of 0.871, and dice similarity coefficient of 0.911. The efficiency ratio of that segmentation performed by the artificial intelligence-based system is 2001 times faster in comparison to the human subject. A statistically significant difference in the measurements from the system to operators in height and time is recorded. The system's recommendations matched the clinicians' assessments in 94% of cases (83/88). Cohen κ of 0.89 indicated near-perfect agreement. The YOLOv8 model is an effective tool, providing high accuracy in segmenting dental structures with balanced computational requirements, and even with the challenges presented, the system can be clinically applicable with future improvements, providing less time-consuming and, most importantly, specialist-level accurate implant planning reports.
在数百张无牙区的锥形束计算机断层扫描横截面图像中评估可用骨的尺寸既耗时、需要高度专注,又容易出现变异性和错误。本研究旨在开发一种基于人工智能的临床适用自动化系统,用于实时评估可用骨量并提供可能的手术和非手术治疗方案。YOLOv8-seg是一种单阶段卷积神经网络检测器,已用于从自定义数据集的横截面图像中分割下颌牙槽骨和下牙槽神经管。已对从骨和神经管的分割掩码中获得的测量值进行数学计算,并与两名不同操作员的手动测量值进行比较,同时比较了测量任务所需的时间。该系统自动建议了25种治疗方案的骨尺寸分类,并由一组专家进行了验证。YOLOv8模型在分割解剖结构方面取得了显著准确的改进,精度为0.951,召回率为0.915,mAP50为0.952,交并比为0.871,骰子相似系数为0.911。与人工相比,基于人工智能的系统进行分割的效率比快2001倍。记录了系统与操作员在高度和时间测量上的统计学显著差异。该系统的建议在94%的病例(83/88)中与临床医生的评估相匹配。Cohen κ为0.89表明几乎完全一致。YOLOv8模型是一种有效的工具,在分割牙齿结构方面具有高精度,同时计算要求合理,即使存在挑战,该系统在未来改进后仍可临床应用,提供耗时更少且最重要的是具有专家级准确性的种植计划报告。