Letter to ‘Automated CT image prescription of the gallbladder using deep learning: Development, evaluation, and health promotion’

IF 1.5 Q2 MEDICINE, GENERAL & INTERNAL
Hinpetch Daungsupawong, Viroj Wiwanitkit
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引用次数: 0

Abstract

We would like to comment on “Automated CT image prescription of the gallbladder using deep learning: Development, evaluation, and health promotion.1” This study created an automatic detection system for acute cholecystitis (AC) that can recognize gallbladders from CT scans of patients and controls. It detected gallbladders using the VGG-16 architecture and processed them using techniques such as the Flood fill algorithm and centroid calculation, as well as U-Net for picture segmentation and feature extraction. The combination of results from many models aided in the development of an automatic and accurate AC detection system.

However, using the accuracy value to evaluate the system's performance may not be sufficient to reflect the ability to distinguish between cases with different conditions, especially when there is an imbalance of data, such as the difference between AC patients and non-patient controls, or when the data is not evenly distributed, which may cause the accuracy value to not reflect the model's effectiveness in handling more difficult cases. Other indices, such as sensitivity, specificity, and AUC (Area Under Curve) values, can help increase the accuracy of model performance evaluation. The example of this kind of study is the previous publication by Ma et al.2

Furthermore, it should be considered to develop techniques that improve processing in cases with low-quality or noisy images, which may cause the model to misclassify or skip over complex cases. This includes the use of diverse data from various sources, such as adding images from patients with complications or changes in gallbladder characteristics.

Approaches that can learn from various data and adapt to the diversity of CT scans, as well as deep learning approaches, should be applied in future development. Further investigation into the model's capacity to process under multiple scenarios, such as changing operational conditions or patient diversity, will improve the system's robustness and accuracy in practice. This study describes the development of an AI-based AC detection system that can work quickly and accurately; however, further developments in low-quality image processing and the use of more diverse statistical techniques are required to enable this technology to detect the disease more accurately and efficiently in clinical practice.

The authors declare no conflicts of interest.

Approval of the research protocol: Not applicable, there is no involvement of humans or animals.

Informed consent: Not applicable, there is no human subject.

Registry and the registration no. of the study/trial: NA.

Animal studies: NA.

致“使用深度学习的胆囊自动CT图像处方:开发、评估和健康促进”的信
我们想对“使用深度学习的胆囊自动CT图像处方:发展,评估和健康促进”发表评论。“这项研究创建了一个急性胆囊炎(AC)的自动检测系统,可以从患者和对照组的CT扫描中识别胆囊。采用VGG-16架构对胆囊进行检测,利用Flood填充算法、质心计算等技术对胆囊进行处理,并利用U-Net进行图像分割和特征提取。结合许多模型的结果有助于开发一个自动和准确的交流检测系统。然而,使用准确度值来评价系统的性能可能不足以反映系统区分不同情况病例的能力,特别是当数据不平衡时,例如AC患者与非患者对照的差异,或者当数据分布不均匀时,可能导致准确度值不能反映模型处理更困难病例的有效性。其他指标,如敏感性、特异性、曲线下面积(AUC)值,可以帮助提高模型性能评价的准确性。这类研究的例子是Ma等人之前发表的文章。2此外,应该考虑开发技术来改进低质量或噪声图像的处理,这可能会导致模型错误分类或跳过复杂的情况。这包括使用来自不同来源的不同数据,例如添加来自并发症或胆囊特征改变患者的图像。在未来的发展中,应该应用能够从各种数据中学习并适应CT扫描多样性的方法,以及深度学习方法。进一步研究该模型在多种情况下的处理能力,如不断变化的操作条件或患者多样性,将提高系统在实践中的鲁棒性和准确性。本研究描述了一种基于人工智能的交流检测系统的开发,该系统可以快速准确地工作;然而,需要进一步发展低质量图像处理和使用更多样化的统计技术,使该技术能够在临床实践中更准确、更有效地检测疾病。作者声明无利益冲突。研究方案的批准:不适用,没有涉及人类或动物。知情同意:不适用,没有人体受试者。注册表及注册编号研究/试验:NA。动物实验:无。
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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来源期刊
Acute Medicine & Surgery
Acute Medicine & Surgery MEDICINE, GENERAL & INTERNAL-
自引率
12.50%
发文量
87
审稿时长
53 weeks
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