基于深度学习的语义分割用于客观结肠镜检查质量评估。

IF 3.8 Q3 IMAGING SCIENCE & PHOTOGRAPHIC TECHNOLOGY Journal of Imaging Pub Date : 2025-03-18 DOI:10.3390/jimaging11030084
Radu Alexandru Vulpoi, Adrian Ciobanu, Vasile Liviu Drug, Catalina Mihai, Oana Bogdana Barboi, Diana Elena Floria, Alexandru Ionut Coseru, Andrei Olteanu, Vadim Rosca, Mihaela Luca
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引用次数: 0

摘要

背景:本研究旨在使用经过专门训练的基于深度学习的语义分割神经网络客观地评估结肠镜检查的整体质量。这代表了一种现代和有价值的方法来分析结肠镜检查框架。方法:我们收集了从一组结肠镜视频文件中提取的数千个结肠镜帧。采用基于颜色的图像处理方法,从每个结肠镜镜框的特定区域,即肠粘膜、残留物、伪影和肠腔中提取颜色特征。利用这些特征,我们自动标注所有结肠镜检查框架,然后从中选择最好的来训练语义分割网络。该训练网络用于在不同的结肠镜检查框架中对四种区域类型进行分类,并提取与质量评估相关的像素统计信息。结肠镜检查也由结肠镜检查专家使用波士顿量表进行评估。结果:深度学习语义分割方法在对结肠镜镜框的四个关键区域进行分类方面取得了较好的效果,并产生了在客观质量评估方面效率较高的像素统计。Spearman相关结果如下:BBPS与像素评分:0.69;BBPS vs.粘膜像素百分比:0.63;BBPS vs.残留像素百分比:-0.47;BBPS vs.人工制品像素百分比:-0.65。使用Cohen's Kappa进行的一致性分析得出的值为0.28。基于提取的像素统计的结肠镜评估显示与专家评估的兼容性相当。结论:我们提出的深度学习语义分割方法被证明是评估结肠镜检查整体质量的一种有前途的工具,在评估结肠镜检查质量方面超越了波士顿肠准备量表。特别的是,虽然波士顿量表只关注残留含量的数量,但我们的方法可以识别和量化结肠粘膜,残留物和伪像的百分比,提供更全面和客观的评估。
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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Deep Learning-Based Semantic Segmentation for Objective Colonoscopy Quality Assessment.

Background: This study aims to objectively evaluate the overall quality of colonoscopies using a specially trained deep learning-based semantic segmentation neural network. This represents a modern and valuable approach for the analysis of colonoscopy frames. Methods: We collected thousands of colonoscopy frames extracted from a set of video colonoscopy files. A color-based image processing method was used to extract color features from specific regions of each colonoscopy frame, namely, the intestinal mucosa, residues, artifacts, and lumen. With these features, we automatically annotated all the colonoscopy frames and then selected the best of them to train a semantic segmentation network. This trained network was used to classify the four region types in a different set of test colonoscopy frames and extract pixel statistics that are relevant to quality evaluation. The test colonoscopies were also evaluated by colonoscopy experts using the Boston scale. Results: The deep learning semantic segmentation method obtained good results, in terms of classifying the four key regions in colonoscopy frames, and produced pixel statistics that are efficient in terms of objective quality assessment. The Spearman correlation results were as follows: BBPS vs. pixel scores: 0.69; BBPS vs. mucosa pixel percentage: 0.63; BBPS vs. residue pixel percentage: -0.47; BBPS vs. Artifact Pixel Percentage: -0.65. The agreement analysis using Cohen's Kappa yielded a value of 0.28. The colonoscopy evaluation based on the extracted pixel statistics showed a fair level of compatibility with the experts' evaluations. Conclusions: Our proposed deep learning semantic segmentation approach is shown to be a promising tool for evaluating the overall quality of colonoscopies and goes beyond the Boston Bowel Preparation Scale in terms of assessing colonoscopy quality. In particular, while the Boston scale focuses solely on the amount of residual content, our method can identify and quantify the percentage of colonic mucosa, residues, and artifacts, providing a more comprehensive and objective evaluation.

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来源期刊
Journal of Imaging
Journal of Imaging Medicine-Radiology, Nuclear Medicine and Imaging
CiteScore
5.90
自引率
6.20%
发文量
303
审稿时长
7 weeks
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