A Precision Smart Healthcare System With Deep Learning for Real-Time Radiographic Localization and Severity Assessment of Peri-Implantitis

Chiung-An Chen;Ya-Yun Huang;Yi-Cheng Mao;Wei-Jiun Feng;Tsung-Yi Chen;Chen-Ye Ciou;Wei-Chen Tu;Patricia Angela R. Abu
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Abstract

Peri-implantitis is a common complication associated with the growing use of dental implants. Clinicians often rely on periapical radiographs for its diagnosis. Recent studies have explored the use of image analysis and artificial intelligence (AI) to reduce the diagnostic workload and time. However, the low quality of periapical images and inconsistent angulation across serial radiographs complicate clinical assessment of peri-implant bone changes, making it challenging for AI to accurately evaluate the severity of peri-implantitis. To address this issue, this study proposes a novel system for the identification and localization of peri-implantitis using periapical radiographs. The study utilizes the YOLOv8 oriented bounding boxes (OBB) model to accurately identify dental implant locations, significantly improving localization accuracy (98.48%) compared to previous research. Since peri-implantitis is diagnosed unilaterally, the algorithm splits the implant in X-ray images to facilitate better analysis. Subsequent steps enhanced the visibility of symptoms by using histogram equalization and coloring the implant parts. The convolutional neural networks (CNN) model, particularly EfficientNet-B0, further improved the detection accuracy (94.05%). In addition, an AI-based method was introduced to assess the severity of peri-implantitis by classifying thread damage, achieving 90.48% accuracy. This deep learning approach using CNN models significantly reduces interpretation time for X-rays, easing the dentist’s workload, minimizing misdiagnosis risks, lowering healthcare costs, and benefiting more patients.
用于种植体周围炎实时放射定位和严重程度评估的深度学习精密智能医疗系统
种植体周围炎是一种常见的并发症,与越来越多的使用牙种植体。临床医生通常依靠根尖周围x线片进行诊断。最近的研究探索了使用图像分析和人工智能(AI)来减少诊断工作量和时间。然而,由于一系列x线片的根尖周图像质量较低以及角度不一致,使得临床对种植体周围骨变化的评估复杂化,使得人工智能难以准确评估种植体周围炎的严重程度。为了解决这个问题,本研究提出了一种利用根尖周围x线片识别和定位种植体周围炎的新系统。本研究利用YOLOv8定向边界盒(OBB)模型准确识别种植体位置,定位精度较以往研究显著提高(98.48%)。由于种植体周围炎是单方诊断,该算法将种植体分割成x射线图像,以便更好地分析。后续步骤通过使用直方图均衡化和为植入体部分着色来增强症状的可见性。卷积神经网络(CNN)模型,特别是effentnet - b0,进一步提高了检测准确率(94.05%)。此外,我们还引入了一种基于人工智能的方法,通过对牙线损伤进行分类来评估种植体周围炎的严重程度,准确率达到90.48%。这种使用CNN模型的深度学习方法大大减少了x射线的解释时间,减轻了牙医的工作量,最大限度地减少了误诊风险,降低了医疗成本,并使更多的患者受益。
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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