ChromosomeNet:基于深度学习的中期细胞图像自动染色体检测

IF 2.7 Q3 ENGINEERING, BIOMEDICAL
Chih-En Kuo;Jun-Zhou Li;Jenn-Jhy Tseng;Feng-Chu Lo;Ming-Jer Chen;Chien-Hsing Lu
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引用次数: 0

摘要

目的:染色体是携带遗传信息的细胞内聚集体。染色体数目或结构的异常导致染色体失调。因此,染色体筛查对产前护理至关重要;然而,手工分析染色体是非常耗时的。随着产前诊断的日益普及,人力资源捉襟见肘。因此,一种自动检测和识别染色体的方法是必要的。方法:在本研究中,我们提出了一个基于深度学习的中期细胞图像染色体自动检测和识别系统。我们使用了一个大型数据库,其中包括5000个中期细胞图像,共包含229852条染色体。然后,提出的系统被开发和评估。该系统被称为ChromosomesNet,它结合了单阶段和两阶段模型的优点。该模型使用原始图像作为输入,无需预处理;因此,它适用于临床设置。为了验证我们系统的临床适用性,我们在我们的数据库中纳入了3827张简单图像和1173张由医生识别的困难图像。结果:我们使用COCOAPI的mAP50评价方法,该方法性能平均,准确率高达99.60%。该方法的召回率和F1得分分别为99.9%和99.49%。并与fast - rcnn、YOLOv7、Retinanet、Swin transformer和centernet++等五种知名的目标检测方法进行了比较。结果表明,ChromosomesNet具有最高的准确率、召回率和F1得分。不像以前的研究报告简单的染色体图像作为鉴定结果,我们在检测困难的图像中获得了99.5%的准确率。结论:我们测试的数据量,甚至包括困难的图像,比文献中的数据量大得多。结果表明,该方法具有较好的稳定性和鲁棒性,适合临床应用。未来的研究有必要通过使用其他医院的数据进行跨医院验证来证实我们提出的方法的临床适用性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ChromosomeNet: Deep Learning-Based Automated Chromosome Detection in Metaphase Cell Images
Goal: Chromosomes are intracellular aggregates that carry genetic information. An abnormal number or structure of chromosomes causes chromosomal disorders. Thus, chromosome screening is crucial for prenatal care; however, manual analysis of chromosomes is time consuming. With the increasing popularity of prenatal diagnosis, human labor resources are overstretched. Therefore, an automatic approach for chromosome detection and recognition is necessary. Methods: In the present study, we proposed a deep learning–based system for the automatic chromosome detection and recognition of metaphase cell images. We used a large database that included 5,000 metaphase cell images consisting of a total of 229,852 chromosomes. The proposed system was then developed and evaluated. The system, called ChromosomesNet, which combines the advantages of one-stage and two-stage models. The model uses original images as inputs without requiring preprocessing; it is thus applicable for clinical settings. To verify the clinical applicability of our system, we included 3,827 simple images and 1,173 difficult images, as identified by physicians, in our database. Results: We used COCOAPI's mAP50 evaluation method, which has average performance and a high accuracy of 99.60%. Moreover, the recall and F1 score of our proposed method were 99.9% and 99.49%, respectively. We also compared our method with five well-known object detection methods, including Faster-RCNN, YOLOv7, Retinanet, Swin transformer, and Centernet++. The results indicated that ChromosomesNet had the highest accuracy, recall, and F1 score. Unlike previous studies that have reported simple chromosome images as identification results, we obtained a 99.5% accuracy in the detection of difficult images. Conclusions: The volume of data we tested, even including difficult images, was much larger than those in the literature. The results indicated that our proposed method is sufficiently stable, robustness, and practical for clinical use. Future studies are warranted to confirm the clinical applicability of our proposed method by using data from other hospitals for cross-hospital validation.
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来源期刊
CiteScore
9.50
自引率
3.40%
发文量
20
审稿时长
10 weeks
期刊介绍: The IEEE Open Journal of Engineering in Medicine and Biology (IEEE OJEMB) is dedicated to serving the community of innovators in medicine, technology, and the sciences, with the core goal of advancing the highest-quality interdisciplinary research between these disciplines. The journal firmly believes that the future of medicine depends on close collaboration between biology and technology, and that fostering interaction between these fields is an important way to advance key discoveries that can improve clinical care.IEEE OJEMB is a gold open access journal in which the authors retain the copyright to their papers and readers have free access to the full text and PDFs on the IEEE Xplore® Digital Library. However, authors are required to pay an article processing fee at the time their paper is accepted for publication, using to cover the cost of publication.
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