Vanderbilt University Biomolecular Multimodal Imaging Center for 3-Dimensional Mapping of the Human Kidney

范德比尔特大学生物分子多模态成像中心进行人体肾脏 3 维绘图

• 批准号: 10701832
• 负责人: Jeffrey M Spraggins
• 金额: $ 163.65万
• 依托单位: VANDERBILT UNIVERSITY
• 依托单位国家: 美国
• 财政年份: 2022
• 资助国家: 美国
• 起止时间: 2022-09-15 至 2026-06-30
• 项目状态: 未结题
• 来源: https://reporter.nih.gov/project-details/10701832
• 关键词: 3-Dimensional; Address; Affect; Anatomy; Antibodies; Atlases; Biological Assay; Biological Markers; Blood capillaries; Cell Separation; Cells; Characteristics; Clinical; Collection; Cytometry; Data; Data Analyses; Disease; Dissociation; Distal; Duct (organ) structure; Elements; Emerging Technologies; Excision; Exclusion; Filtration; Fluorescence; Gene Expression Profiling; Goals; Heterogeneity; Histologic; Homeostasis; Human; Human BioMolecular Atlas Program; Image; Imaging technology; Immunofluorescence Microscopy; Individual; Kidney; Knowledge; Link; Lipids; Location; Lymphatic; Maps; Methods; Microscopy; Mission; Modality; Molecular; Molecular Analysis; Molecular Profiling; Morphology; Multimodal Imaging; Neighborhoods; Nephrons; Operative Surgical Procedures; Organ; Preparation; Property; Proteins; Proteomics; Protocols documentation; Quality Control; RNA; Research Personnel; Sampling; Sodium Chloride; Source; Specimen; Stains; Standardization; Structure; Tissue Banks; Tissue Sample; Tissues; Tubular formation; Universities; Water; analysis pipeline; assay development; automated segmentation; biobank; blood pressure control; cell type; data management; experimental study; extracellular; human tissue; imaging facilities; insight; interstitial; kidney cell; mass spectrometric imaging; molecular imaging; multimodality; multiple omics; programs; scale up; single-cell RNA sequencing; surgery material; tissue mapping; transcriptomics

PROJECT SUMMARY – Kidney OSP. The overall structure and anatomical relationships among different cell types within the human kidney are well understood, and experimental studies have defined the molecular and functional characteristics of individual kidney cell types. However, remarkably little is known about the integration, interactions, and molecular cross- talk between the different cellular compartments in normal kidneys. The goal of the Kidney OSP is to address this limitation in current knowledge by developing a fully integrated, multimodal molecular imaging pipeline to characterize the cellular and molecular organization of the human kidney. Building on our already established HuBMAP characterization pipeline, we will bring together imaging mass spectrometry, highly multiplexed immunofluorescence microscopy, autofluorescence microscopy, stained microscopy, spatial transcriptomics, spatial proteomics, and single-cell RNA-seq. Each modality was specifically chosen to enable the construction of a kidney molecular atlas that spans a wide range of spatial scales (e.g., single cells, functional tissue units, neighborhoods, and whole organs) and molecular classes (e.g., metabolites, lipids, proteins, and RNAs). The result will be a comprehensive molecular atlas of the human kidney that will be fully compatible with other molecular interrogation pipelines and data generated by HuBMAP researchers. In Aim 1 we will continue our kidney tissue collection and management protocols that build on our established kidney biobanks and tissue acquisition programs to create a representative molecular atlas of the human kidney. Aim 2 establishes clinical and histological standards and metrics that will be used to determine the suitability of samples that can be entered into the analytical pipeline. The focus of Aim 3 puts forth a strategy for 2-D and 3-D multimodal imaging and deep multi-omic analysis of the human kidney. Assay development on surgical resection specimens will be applied to whole organs using non-transplantable donor kidneys to construct 3-D molecular atlases. Finally, Aim 4 will scale up the kidney-specific characterization pipeline to generate representative 3-D molecular atlases from multiple, intact human kidneys.

项目摘要 - 肾脏OSP。 人肾脏内不同细胞类型之间的整体结构和解剖关系很好 理解，实验研究定义了个体的分子和功能特征 肾细胞类型。然而，关于整合，相互作用和分子交叉的知之甚少 正常肾脏中不同细胞室之间的对话。肾脏OSP的目标是解决 通过将完全集成的多模式分子成像管道开发到当前知识中的这种限制 表征人肾脏的细胞和分子组织。建立在我们已经建立的 Hubmap表征管道，我们将汇集成像质谱法，高度多重 免疫荧光显微镜，自荧光显微镜，染色显微镜，空间转录组学， 空间蛋白质组学和单细胞RNA-seq。专门选择每种方式以实现构造 肾脏分子图谱，该图形涵盖了广泛的空间尺度（例如，单细胞，功能组织单元， 邻域以及整个器官）和分子类（例如代谢产物，脂质，蛋白质和RNA）。 结果将是人类肾脏的全面分子图集，将与其他人完全兼容 Hubmap研究人员生成的分子询问管道和数据。在目标1中，我们将继续我们的 基于我们已建立的肾脏生物库和组织的肾脏组织收集和管理方案 收购计划，以创建人类肾脏的代表性分子地图集。 AIM 2建立临床 以及将用于确定样本的适用性的组织学标准和指标 进入分析管道。 AIM 3的重点提出了2-D和3-D多模式成像的策略 和人类肾脏的深度多摩变分析。关于手术切除规格的测定开发将是 使用不可移植的供体肾脏应用于整个器官，以构建3-D分子地图集。最后，瞄准 4将扩大肾脏特异性表征管道以产生代表性的3-D分子图书馆 来自多个完整的人类肾脏。