验证用于正常人肾脏循环免疫荧光显微镜检查的器官图谱抗体组。

Maya Brewer, Lukasz G Migas, Kelly A Clouthier, Jamie L Allen, David M Anderson, Ellie Pingry, Melissa Farrow, Ellen M Quardokus, Jeffrey M Spraggins, Raf Van de Plas, Mark P de Caestecker
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引用次数: 0

摘要

抗体验证缺乏标准化仍然是人类研究不可重复的一个主要原因。为了解决这个问题,我们采用标准化方法验证了一组抗体,通过免疫荧光(IF)显微镜鉴定人类肾脏中的18种主要细胞类型和5个细胞外基质区。我们利用这些抗体生成了用于二维和三维循环免疫荧光(CyCIF)的器官图谱抗体面板,使用比通常使用标准荧光显微镜更多的标记物面板,为评估组织分割和体积提供了更详细的方法。CyCIF 还能对整张载玻片图像进行多重中频显微镜检查,这与其他适用于有限视野的多重成像技术相比具有明显优势。这样就能在更大的解剖区域内观察到更广泛的细胞分布,从而更有机会捕捉到病变组织中功能障碍的局部区域。任何拥有荧光显微镜的实验室都能广泛使用这些方法,从而实现正常和疾病状态下的空间细胞表型分析。我们还为 CyCIF 循环之间的图像配准提供了详细的解决方案,研究人员无需编程经验即可使用开源软件进行这些研究。这种无需专业仪器或计算技能即可进行多路复用成像的能力,为与空间转录组学和成像质谱等更高维度的分子成像模式进行整合打开了大门,从而能够发现特定细胞类型的分子标记以及这些标记在疾病中的变化情况。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Validation of an organ mapping antibody panel for cyclical immunofluorescence microscopy on normal human kidneys.

The lack of standardization in antibody validation remains a major contributor to irreproducibility of human research. To address this, we have applied a standardized approach to validate a panel of antibodies to identify 18 major cell types and 5 extracellular matrix compartments in the human kidney by immunofluorescence (IF) microscopy. We have used these to generate an organ mapping antibody panel for two-dimensional (2-D) and three-dimensional (3-D) cyclical IF (CyCIF) to provide a more detailed method for evaluating tissue segmentation and volumes using a larger panel of markers than would normally be possible using standard fluorescence microscopy. CyCIF also makes it possible to perform multiplexed IF microscopy of whole slide images, which is a distinct advantage over other multiplexed imaging technologies that are applicable to limited fields of view. This enables a broader view of cell distributions across larger anatomical regions, allowing a better chance to capture localized regions of dysfunction in diseased tissues. These methods are broadly accessible to any laboratory with a fluorescence microscope, enabling spatial cellular phenotyping in normal and disease states. We also provide a detailed solution for image alignment between CyCIF cycles that can be used by investigators to perform these studies without programming experience using open-sourced software. This ability to perform multiplexed imaging without specialized instrumentation or computational skills opens the door to integration with more highly dimensional molecular imaging modalities such as spatial transcriptomics and imaging mass spectrometry, enabling the discovery of molecular markers of specific cell types, and how these are altered in disease.NEW & NOTEWORTHY We describe here validation criteria used to define on organ mapping panel of antibodies that can be used to define 18 cell types and five extracellular matrix compartments using cyclical immunofluorescence (CyCIF) microscopy. As CyCIF does not require specialized instrumentation, and image registration required to assemble CyCIF images can be performed by any laboratory without specialized computational skills, this technology is accessible to any laboratory with access to a fluorescence microscope and digital scanner.

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