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Cell BiologybioRxiv
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Molecular characterization of clonal human renal forming cells

O. Cohen-Zontag, R. Gershon, O. Harari-Steinberg, I. Kanter, D. Omer, O. Pleniceanu, G. Tam, S. Oriel, H. Ben-Hur, G. Katz, D. Zohar, T. Kalisky, B. Dekel, N. Pode-Shakked

Abstract

The adult kidney replaces its parenchyma in vivo in steady state and during regeneration by segment-specific clonal cell proliferation. To understand human adult kidney clonal cell growth, we derived tissue from human nephrectomies and performed limiting dilution to establish genuine clonal cultures from one single cell. Clonal efficiency of the human kidney was x%. Remarkably, a single renal cell could give rise to up to 3.3*10(6) cells. Phenotypically, two types of clonal cultures were apparent; a stably proliferating cuboidal epithelial-like appearing (EL) and a rapidly proliferating fibroblast-like appearing (FL). RNA sequencing of all clonal cultures separated FL from EL cultures according to proximal-distal/collecting renal epithelial tubular identity, respectively. Moreover, distinct molecular features in respect to cell-cycle, epithelial-mesenchymal transition, oxidative phosphorylation, BMP signaling pathway and cell surface markers were observed for each clone type. Surprisingly, clonal expansion (>3 months) was sustained in EL clones harboring markers of mature kidney epithelia (high CD24, CDH1, EpCAM, EMA) in contrast to de-differentiated FL clones (high NCAM1, serpine1), which showed fast lineage amplification and exhausted in a few weeks. Thus, the human adult kidney harbors progenitor cell function in which segment identity and the level of epithelial differentiation dictate clonal characteristics.

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02 /Specification & Classification

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