Adelaide Dental School, The University of Adelaide, Adelaide, South Australia, Australia.
J Oral Rehabil. 2023 Jun;50(6):501-521. doi: 10.1111/joor.13440. Epub 2023 Mar 9.
This review aimed to systematically analyse the influence of clinical variables, diagnostic parameters and the overall image acquisition process on automation and deep learning in TMJ disorders.
Articles were screened in late 2022 according to a predefined eligibility criteria adhering to the PRISMA protocol. Eligible studies were extracted from databases hosted by MEDLINE, EBSCOHost, Scopus, PubMed and Web of Science. Critical appraisals were performed on individual studies following Nature Medicine's MI-CLAIM checklist while a combined appraisal of the image acquisition procedures was conducted using Cochrane's GRADE approach.
Twenty articles were included for full review following eligibility screening. The average experience possessed by the clinical operators within the eligible studies was 13.7 years. Bone volume, trabecular number and separation, and bone surface-to-volume ratio were clinical radiographic parameters while disc shape, signal intensity, fluid collection, joint space narrowing and arthritic changes were successful parameters used in MRI-based deep machine learning. Entropy was correlated to sclerosis in CBCT and was the most stable radiomic parameter in MRI while contrast was the least stable across thermography and MRI. Adjunct serum and salivary biomarkers, or clinical questionnaires only marginally improved diagnostic outcomes through deep learning. Substantial data was classified as unusable and subsequently discarded owing to a combination of suboptimal image acquisition and data augmentation procedures. Inadequate identification of the participant characteristics and multiple studies utilising the same dataset and data acquisition procedures accounted for serious risks of bias.
Deep-learned models diagnosed osteoarthritis as accurately as clinicians from 2D and 3D radiographs but, in comparison, performed poorly when detecting disc disorders from MRI datasets. Complexities in clinical classification criteria; non-standardised diagnostic parameters; errors in image acquisition; cognitive, contextual or implicit biases were influential variables that generally affected analyses of inflammatory joint changes and disc disorders.
本综述旨在系统分析临床变量、诊断参数以及整体图像采集过程对 TMJ 疾病的自动化和深度学习的影响。
根据遵循 PRISMA 协议的预先确定的纳入标准,于 2022 年末筛选文章。从 MEDLINE、EBSCOHost、Scopus、PubMed 和 Web of Science 托管的数据库中提取合格研究。按照 Nature Medicine 的 MI-CLAIM 清单对个别研究进行批判性评估,同时使用 Cochrane 的 GRADE 方法对图像采集程序进行综合评估。
经过资格筛选,共有 20 篇文章进行了全面审查。合格研究中临床操作人员的平均经验为 13.7 年。骨量、骨小梁数量和分离以及骨表面积与体积比是临床放射学参数,而盘形状、信号强度、积液、关节间隙变窄和关节炎变化是 MRI 基于深度学习的成功参数。熵与 CBCT 中的硬化有关,是 MRI 中最稳定的放射组学参数,而对比度在热成像和 MRI 中最不稳定。辅助血清和唾液生物标志物或临床问卷仅通过深度学习略微改善了诊断结果。由于图像采集和数据增强程序不佳,大量数据被归类为不可用并随后丢弃。参与者特征的识别不足以及多个研究使用相同的数据集和数据采集程序导致了严重的偏倚风险。
深度学习模型从二维和三维射线照片中诊断骨关节炎的准确性与临床医生相当,但与从 MRI 数据集检测盘状疾病相比,表现不佳。临床分类标准的复杂性;非标准化的诊断参数;图像采集错误;认知、上下文或隐含偏差是影响炎症性关节变化和盘状疾病分析的重要变量。