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CD166 Engagement Augments Mouse and Human Hematopoietic Progenitor Function Via Activation of Stemness and Cell Cycle Pathways

Overview
Journal Stem Cells
Date 2019 Jul 2
PMID 31260147
Citations 3
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Abstract

Hematopoietic stem (HSC) and progenitor (HPC) cells are regulated by interacting signals and cellular and noncellular elements of the hematopoietic niche. We previously showed that CD166 is a functional marker of murine and human HSC and of cellular components of the murine niche. Selection of murine CD166 engrafting HSC enriched for marrow repopulating cells. Here, we demonstrate that CD166-CD166 homophilic interactions enhance generation of murine and human HPC in vitro and augment hematopoietic function of these cells. Interactions between cultured CD166 Lineage Sca-1 c-Kit (LSK) cells and CD166 osteoblasts (OBs) significantly enhanced the expansion of colony-forming units (CFUs). Interactions between CD166 LSK cells and immobilized CD166 protein generated more CFU in short-term cultures than between these cells and bovine serum albumin (BSA) or in cultures initiated with CD166 LSK cells. Similar results were obtained when LSK cells from wildtype (WT) or CD166 knockout (KO) (CD166 ) mice were used with immobilized CD166. Human cord blood CD34 cells expressing CD166 produced significantly higher numbers of CFUs following interaction with immobilized CD166 than their CD166 counterparts. These data demonstrate the positive effects of CD166 homophilic interactions involving CD166 on the surface of murine and human HPCs. Single-cell RNA-seq analysis of CD150 CD48 (signaling lymphocyte activation molecule (SLAM)) LSK cells from WT and CD166 mice incubated with immobilized CD166 protein revealed that engagement of CD166 on these cells activates cytokine, growth factor and hormone signaling, epigenetic pathways, and other genes implicated in maintenance of stem cell pluripotency-related and mitochondria-related signaling pathways. These studies provide tangible evidence implicating CD166 engagement in the maintenance of stem/progenitor cell function. Stem Cells 2019;37:1319-1330.

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