Bajaj Sweta, Tolleson Spencer, Zarfeshani Aida, Hav Monirath, Pawlowski Sean C, Lyons Danielle E, Padmanabhan Raghav, Tarolli Jay G, Nagy Máté Levente
Ionpath, Inc., 960 O'Brien Dr., Menlo Park, California 94025, United States.
J Am Soc Mass Spectrom. 2024 Dec 4;35(12):3126-3134. doi: 10.1021/jasms.4c00328. Epub 2024 Nov 19.
Existing analytical techniques are being improved or applied in new ways to profile the tissue microenvironment (TME) to better understand the role of cells in disease research. Fully understanding the complex interactions between cells of many different types and functions is often slowed by the intense data analysis required. Multiplexed Ion Beam Imaging (MIBI) has been developed to simultaneously characterize 50+ cell types and their functions within the TME with a subcellular spatial resolution, but this results in complex data sets that are challenging to qualitatively analyze. Deep Learning (DL) techniques were used to build the MIBIsight workflow, which can process images containing thousands of cells into easily digestible reports and plots to enable researchers to easily summarize data sets in a study and make informed conclusions. Here we present the three types of DL models that have been trained with annotated MIBI images that have been pathologist validated as well as the associated workflow for the evolution of raw mass spectral data into actionable reports and plots.
现有的分析技术正在以新的方式得到改进或应用,以描绘组织微环境(TME),从而在疾病研究中更好地理解细胞的作用。由于需要进行大量数据分析,全面了解许多不同类型和功能的细胞之间的复杂相互作用往往会受到阻碍。已开发出多重离子束成像(MIBI)技术,可在亚细胞空间分辨率下同时表征TME内50多种细胞类型及其功能,但这会产生复杂的数据集,定性分析具有挑战性。深度学习(DL)技术被用于构建MIBIsight工作流程,该流程可以将包含数千个细胞的图像处理成易于理解的报告和图表,使研究人员能够轻松总结研究中的数据集并得出明智的结论。在此,我们展示了三种经过注释的MIBI图像训练的DL模型,这些图像已通过病理学家验证,以及将原始质谱数据转化为可操作的报告和图表的相关工作流程。