Structured adaptive boosting trees for detection of multicellular aggregates in fluorescence intravital microscopy

IF 2.9 4区 医学 Q2 PERIPHERAL VASCULAR DISEASE Microvascular research Pub Date : 2024-08-13 DOI:10.1016/j.mvr.2024.104732
Reza Iranzad , Xiao Liu , Kokeb Dese , Hassan Alkhadrawi , Hunter T. Snoderly , Margaret F. Bennewitz
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Abstract

Fluorescence intravital microscopy captures large data sets of dynamic multicellular interactions within various organs such as the lungs, liver, and brain of living subjects. In medical imaging, edge detection is used to accurately identify and delineate important structures and boundaries inside the images. To improve edge sharpness, edge detection frequently requires the inclusion of low-level features. Herein, a machine learning approach is needed to automate the edge detection of multicellular aggregates of distinctly labeled blood cells within the microcirculation. In this work, the Structured Adaptive Boosting Trees algorithm (AdaBoost.S) is proposed as a contribution to overcome some of the edge detection challenges related to medical images. Algorithm design is based on the observation that edges over an image mask often exhibit special structures and are interdependent. Such structures can be predicted using the features extracted from a bigger image patch that covers the image edge mask. The proposed AdaBoost.S is applied to detect multicellular aggregates within blood vessels from the fluorescence lung intravital images of mice exposed to e-cigarette vapor. The predictive capabilities of this approach for detecting platelet-neutrophil aggregates within the lung blood vessels are evaluated against three conventional machine learning algorithms: Random Forest, XGBoost and Decision Tree. AdaBoost.S exhibits a mean recall, F-score, and precision of 0.81, 0.79, and 0.78, respectively. Compared to all three existing algorithms, AdaBoost.S has statistically better performance for recall and F-score. Although AdaBoost.S does not outperform Random Forest in precision, it remains superior to the XGBoost and Decision Tree algorithms. The proposed AdaBoost.S is widely applicable to analysis of other fluorescence intravital microscopy applications including cancer, infection, and cardiovascular disease.

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在荧光显微镜下检测多细胞聚集体的结构化自适应提升树
荧光体视显微镜可捕捉各种器官(如活体的肺、肝和大脑)内多细胞动态相互作用的大量数据集。在医学成像中,边缘检测用于准确识别和划分图像内的重要结构和边界。为了提高边缘的清晰度,边缘检测通常需要加入低级特征。因此,需要一种机器学习方法来自动检测微循环中由不同标记的血细胞组成的多细胞聚集体的边缘。在这项工作中,提出了结构化自适应提升树算法(AdaBoost.S),以克服与医学图像相关的边缘检测难题。算法设计的基础是观察到图像掩膜上的边缘经常表现出特殊的结构,并且是相互依存的。利用从覆盖图像边缘掩膜的更大图像补丁中提取的特征,可以预测这种结构。所提出的 AdaBoost.S 被应用于从暴露于电子烟蒸汽的小鼠的荧光肺内观察图像中检测血管内的多细胞聚集。与三种传统的机器学习算法相比,该方法检测肺血管内血小板-中性粒细胞聚集的预测能力得到了评估:随机森林算法、XGBoost 算法和决策树算法。AdaBoost.S 的平均召回率、F 分数和精确度分别为 0.81、0.79 和 0.78。与所有三种现有算法相比,AdaBoost.S 在召回率和 F 分数方面都有更好的统计性能。虽然 AdaBoost.S 在精确度上没有超过随机森林算法,但仍然优于 XGBoost 和决策树算法。建议的 AdaBoost.S 可广泛应用于其他荧光显微镜应用分析,包括癌症、感染和心血管疾病。
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来源期刊
Microvascular research
Microvascular research 医学-外周血管病
CiteScore
6.00
自引率
3.20%
发文量
158
审稿时长
43 days
期刊介绍: Microvascular Research is dedicated to the dissemination of fundamental information related to the microvascular field. Full-length articles presenting the results of original research and brief communications are featured. Research Areas include: • Angiogenesis • Biochemistry • Bioengineering • Biomathematics • Biophysics • Cancer • Circulatory homeostasis • Comparative physiology • Drug delivery • Neuropharmacology • Microvascular pathology • Rheology • Tissue Engineering.
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