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首页> 外文期刊>Endocrinology >Single-Cell RNA Sequencing Reveals Novel Markers of Male Pituitary Stem Cells and Hormone-Producing Cell Types
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Single-Cell RNA Sequencing Reveals Novel Markers of Male Pituitary Stem Cells and Hormone-Producing Cell Types

机译:单细胞RNA测序显示雄性垂体干细胞和产生激素产生细胞类型的新型标记

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摘要

Transcription factors and signaling pathways that regulate stem cells and specialized hormone-producing cells in the pituitary gland have been the subject of intense study and have yielded a mechanistic understanding of pituitary organogenesis and disease. However, the regulation of stem cell proliferation and differentiation, the heterogeneity among specialized hormone-producing cells, and the role of nonendocrine cells in the gland remain important, unanswered questions. Recent advances in single-cell RNA sequencing (scRNAseq) technologies provide new avenues to address these questions. We performed scRNAseq on; 13,663 cells pooled from six whole pituitary glands of 7-week-old C57BL/6 male mice. We identified pituitary endocrine and stem cells in silico, as well as other support cell types such as endothelia, connective tissue, and red and white blood cells. Differential gene expression analyses identify known and novel markers of pituitary endocrine and stem cell populations. We demonstrate the value of scRNAseq by in vivo validation of a novel gonadotrope-enriched marker, Foxp2. We present novel scRNAseq data of in vivo pituitary tissue, including data from agnostic clustering algorithms that suggest the presence of a somatotrope subpopulation enriched in sterol/cholesterol synthesis genes. Additionally, we show that incomplete transcriptome annotation can cause false negatives on some scRNAseq platforms that only generate 3' transcript end sequences, and we use in vivo data to recover reads of the pituitary transcription factor Prop1. Ultimately, scRNAseq technologies represent a significant opportunity to address long-standing questions regarding the development and function of the different populations of the pituitary gland throughout life.
机译:调节干细胞和垂体产生的专业激素产生细胞的转录因子和信号通路已经是激烈的研究主题,并产生了对垂体机组和疾病的机械理解。然而,对干细胞增殖和分化的调节,专用激素产生细胞之间的异质性,并且非内分泌细胞在腺体中的作用仍然是重要的,未答复的问题。单细胞RNA测序(SCRNASEQ)技术的最新进展提供了解决这些问题的新途径。我们执行了scrnaseq; 13,663个细胞从7周龄C57BL / 6雄性小鼠的六个整个垂体腺体中汇集。我们在硅中鉴定了垂体内分泌和干细胞,以及其他支持细胞类型,如内皮,结缔组织和红色和白细胞。差分基因表达分析鉴定垂体内分泌和干细胞群的已知和新标志物。我们通过体内验证新型促性腺富集标记,Foxp2来证明Scrnaseq的价值。我们提出了体内脑垂体组织的新型Scrlaneq数据,包括来自不可知的聚类算法的数据,表明存在富含甾醇/胆固醇合成基因的躯体运动亚群的存在。此外,我们表明,不完整的转录组注释会对一些SCRNASEQ平台造成错误的否定,仅生成3'脚本结束序列,并且我们使用体内数据来恢复垂体转录因子prop1的读数。最终,ScrnaLeq Technologies代表了一个重要的机会,解决了关于垂体腺体的不同群体的发展和运作的长期问题。

著录项

  • 来源
    《Endocrinology》 |2018年第12期|共15页
  • 作者单位

    Univ Michigan Dept Human Genet 5805 Med Sci Bldg 2 1241 East Catherine St Ann Arbor MI 48109 USA;

    Univ Michigan Dept Human Genet 5805 Med Sci Bldg 2 1241 East Catherine St Ann Arbor MI 48109 USA;

    Southern Illinois Univ Dept Physiol Carbondale IL 62901 USA;

    Univ Michigan Dept Human Genet 5805 Med Sci Bldg 2 1241 East Catherine St Ann Arbor MI 48109 USA;

    Univ Michigan Dept Human Genet 5805 Med Sci Bldg 2 1241 East Catherine St Ann Arbor MI 48109 USA;

    Southern Illinois Univ Dept Physiol Carbondale IL 62901 USA;

    Univ Michigan Dept Human Genet 5805 Med Sci Bldg 2 1241 East Catherine St Ann Arbor MI 48109 USA;

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  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类 内分泌腺疾病及代谢病;
  • 关键词

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