用于识别血细胞类型的高级生物医学成像:整合分割、特征提取和GraphSAGE模型

Nur Mohammad Fahad , Mohaimenul Azam Khan Raiaan , Arefin Ittesafun Abian , Ripon Kumar Debnath , Sidratul Montaha , Mirjam Jonkman , Sami Azam
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引用次数: 0

摘要

血液分析,包括红细胞(RBC)和不同类型的白细胞(wbc),在某些疾病的诊断中起着重要作用。血细胞及其成分的自动分割可以帮助临床医生有效地进行诊断;目的:本研究提出了一种评估生物医学成像意义的计算机方法。它提出了从多个数据集的组织病理学图像中分割血细胞及其细胞核的框架。此外,还开发了血细胞计数的自定义算法。方法本研究介绍了两种自动分析白细胞的方法,包括区分白细胞和红细胞的图像分割、白细胞的细胞核和利用临床重要特征对白细胞进行分类。提出了一种利用图像预处理算法实现白细胞和红细胞自动计数的有效分割方法。构建了改进的GraphSAGE模型对血细胞进行分类。从分割的白细胞和细胞核中提取临床相关特征作为最终的数据集。特征排序分析识别最优特征并降低维数,帮助基于数据相似度的图数据集构建。结果该模型的准确率为96.67%。并与基准模型进行了对比分析,以评估模型的有效性。该模型的可解释性是为了提高诊断系统的透明度,并提供洞察决策过程。结论利用血细胞的自动、同步分割并探索它们之间的关系来进行有效的分类,大大提高了该诊断系统的可靠性和适用性,并有助于临床医生。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advanced biomedical imaging for identifying blood cell type: Integrating segmentation, feature extraction, and GraphSAGE model

Background

The analysis of blood, including red blood cells (RBC) and different types of white blood cells (WBCs) plays a major role in the diagnosis of certain diseases. Automated segmentation of blood cells and their components can assist clinicians in effectively making diagnoses; however, it is quite challenging Objective: This study proposes a computerized approach to assessing the significance of biomedical imaging. It presents a framework for segmenting blood cells as well as their nuclei from the histopathological images of multiple datasets. Additionally, a custom algorithm is developed for blood cell counting.

Methods

This study introduces two automated methods for WBC analysis, including image segmentation to distinguish between WBCs and RBCs, the nuclei of the WBC, and classifying WBC types using clinically important features. An effective segmentation approach with image preprocessing algorithms is developed for automatic counting of WBCs and RBCs. An improved GraphSAGE model is constructed to classify blood cells. Clinically relevant features are extracted from segmented WBCs and nuclei for a final dataset. Feature ranking analysis identifies optimal features and reduces dimensionality, aiding graph dataset construction based on data similarity.

Results

Our proposed model achieved an accuracy of 96.67 %. A comparative analysis with benchmark models is done to assess the effectiveness of the model. The explainability of the model is addressed to enhance the transparency of the diagnostic system and provide insight into the decision-making process.

Conclusion

Leveraging the automated, simultaneous segmentation of blood cells and exploring their relationships for effective classification substantially helps to improve the reliability and applicability of this diagnostic system and aid clinicians.
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来源期刊
Biomedical engineering advances
Biomedical engineering advances Bioengineering, Biomedical Engineering
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