High resolution 3D mapping of cellular heterogeneity within multiple types of mineralized tissues

多种矿化组织内细胞异质性的高分辨率 3D 绘图

• 批准号: 10405900
• 负责人: PETER MAYE
• 金额: $ 25.75万
• 依托单位: UNIVERSITY OF CONNECTICUT SCH OF MED/DNT
• 依托单位国家: 美国
• 财政年份: 2020
• 资助国家: 美国
• 起止时间: 2020-09-21 至 2023-08-31
• 项目状态: 已结题
• 来源: https://reporter.nih.gov/project-details/10405900
• 关键词: 3-Dimensional; Address; Adoption; Biological; Birds; Bone Tissue; Brain; CCL2 gene; Cartilage; Cells; Cephalic; Collaborations; Communities; Computer software; Computers; Consumption; Custom; Data; Data Set; Databases; Deposition; Environment; Feathers; Fluorescent in Situ Hybridization; Future; Gene Expression; Gene Expression Process; Gene Expression Profile; Genes; Genetic Transcription; Genotype-Tissue Expression Project; Glutathione; Goals; Heart; Heterogeneity; High Fat Diet; Histology; Human; Human BioMolecular Atlas Program; In Situ Hybridization; Individual; Institutes; Internet; Intervention; Knee; Knee bone; Liver; Manuals; Metabolism; Methods; Minerals; Mining; Molecular; Mus; Organ; Osteoblasts; Osteoclasts; Outcome; Paired Comparison; Pattern; Population; Process; Proteins; Protocols documentation; Publishing; RNA; Regulation; Research Personnel; Resolution; Resources; Role; Sampling; Scheme; Scientist; Series; Services; Signal Transduction; Skeletal system; Software Engineering; Software Tools; TNF gene; Time; Tissue-Specific Gene Expression; Tissues; Visual; archive data; archived data; base; biomedical scientist; bone; cohort; cost; data analysis pipeline; data archive; design; improved; interest; meetings; member; multimodality; nonalcoholic steatohepatitis; population based; portability; programs; query tools; response; software systems; success; three dimensional structure; tool; user-friendly; web services

Summary The goal of the HuBMAP program is to appreciate the unique contextual role of individual cells within the 3D structure of a tissue at its most basic level of transcriptional activity, cellular signaling and cellular response. To date the subject tissues have not included the mineralized skeletal system due to technical issues that preclude the requirements of the HuBMAP program. We have solved those issues with a protocol that is capable of performing multimodal histology that includes methods for advanced and repetitive in situ hybridization for both RNA and protein targets. In this software engineering supplement project, we aim to revamp one important software tool, called mGEA (Make GEO Accessible), that we have been using internally to identify candidate MERFISH probes for human knee and bone tissues so that it can benefit a larger user base who needs to examine population- based reference gene expression data sets readily available from NCBI GEO. Examining GEO deposited data can be very beneficial for HuBMAP users since one can acquire a cohort of gene expression data sets from which tissue/organ specific reference gene expression patterns could be mined. The importance of using population-based signals for probe design has been hotly discussed during the recent HuBMAP FISH-assay meeting (March 15, 2021 organized by Dr. Ajay Pillai). Unfortunately, GEO has been mostly optimized for “data archiving” and as such, using deposited data by ordinary biologists and even for computational scientists has been severely limited. Our tool mGEA could dramatically lower that barrier. Difficulties of using GEO deposited data include (i) associating experimental platform IDs (e.g., Affymetrix, Illumina, Agilent, etc.) with gene symbols that biologists are mostly familiar with, and (ii) organizing which populations of samples (biological and technical replicates) can be grouped together and compared (e.g., treatment vs. control, KO population vs. WT, etc.). Using mGEA, scientists should be able to convert the archived data into biologists-friendly formats (e.g., Excel spreadsheet with gene symbols, fold change and statistical sample-wise and gene-wise z-scores precomputed) within a few clicks over any web browser. If everything goes well, users should be able to convert a GEO deposited data set into a format amenable to their local exploration in less than 10 minutes using the tool’s user-friendly visual GUI although problematic cases may take longer as manual intervention is needed. Making mGEA cloud-ready would not only benefits the members of the HuBMAP consortium but also the constituents far beyond the HuBMAP. With mGEA, the majority of wet-bench biologists should be able to explore GEO deposited data, thus facilitating GEO to unleash its intended power as an important community resource.

总结 HuBMAP计划的目标是了解单个细胞在3D环境中的独特背景作用。 在转录活性、细胞信号传导和细胞反应的最基本水平上，组织的结构。 迄今为止，由于技术问题，受试组织不包括矿化骨骼系统， 排除了HuBMAP计划的要求。我们已经用一个协议解决了这些问题， 能够进行多模式组织学，包括先进的和重复的原位 RNA和蛋白质靶标的杂交。 在这个软件工程补充项目中，我们的目标是改造一个重要的软件工具， mGEA（使GEO可识别），我们一直在内部使用它来识别候选MERFISH探针， 人体膝盖和骨骼组织，以便它可以使需要检查人群的更大用户群受益- 基于可从NCBI GEO容易获得的参考基因表达数据集。审查地球观测组织存放的数据 对于HuBMAP用户来说是非常有益的，因为人们可以从HuBMAP中获得一组基因表达数据集。 可以挖掘哪些组织/器官特异性参考基因表达模式。分子工作的重要性 在最近的HuBMAP FISH测定中，用于探针设计的基于群体的信号已经被热烈讨论 会议（2021年3月15日由Ajay Pillai博士组织）。不幸的是，GEO主要针对“数据”进行了优化 存档”，因此，使用普通生物学家甚至计算科学家储存的数据， 受到严重限制。我们的工具mGEA可以大大降低这一障碍。使用GEO的困难 数据包括（i）将实验平台ID（例如，Affyoung、Illumina、Agilent等）与基因 生物学家最熟悉的符号，以及（ii）组织哪些样本群体（生物和 技术复制）可以被分组在一起并进行比较（例如，治疗组与对照组，KO群体与 WT等）。使用mGEA，科学家应该能够将存档数据转换为生物学家友好的格式 (e.g.,带有基因符号、倍数变化和统计样本和基因z分数的Excel电子表格 预先计算的）在任何网络浏览器上点击几下。如果一切顺利，用户应该能够 在不到10分钟的时间内将地球观测组织存放的数据集转换为适合当地勘探的格式 使用该工具的用户友好的可视化图形用户界面，虽然有问题的情况下可能需要更长的时间，因为手动干预是 needed.使mGEA云就绪不仅有利于HuBMAP联盟的成员， 远远超出了HUBMAP的选民。有了mGEA，大多数湿台生物学家应该能够 探索GEO存放的数据，从而促进GEO发挥其作为重要社区的预期力量 resource.