Isolation and Characterization of Multipotent Progenitor Cells from the Bowman’s Capsule of Adult Human Kidneys
Costanza Sagrinati,Giuseppe Stefano Netti,Benedetta Mazzinghi,Elena Lazzeri,Francesco Liotta,Francesca Frosali,Elisa Ronconi,Claudia Meini,Mauro Gacci,Roberta Squecco,Marco Carini,Loreto Gesualdo,Fabio Francini,Enrico Maggi,Francesco Annunziato,Laura Lasagni,Mario Serio,Sergio Romagnani,Paola Romagnani +18 more
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TL;DR: This study demonstrates the existence and provides the characterization of a population of resident multipotent progenitor cells in adult human glomeruli, potentially opening new avenues for the development of regenerative medicine in patients who have renal diseases.
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Abstract: Regenerative medicine represents a critical clinical goal for patients with ESRD, but the identification of renal adult multipotent progenitor cells has remained elusive. It is demonstrated that in human adult kidneys, a subset of parietal epithelial cells (PEC) in the Bowman’s capsule exhibit coexpression of the stem cell markers CD24 and CD133 and of the stem cell–specific transcription factors Oct-4 and BmI-1, in the absence of lineage-specific markers. This CD24 + CD133 + PEC population, which could be purified from cultured capsulated glomeruli, revealed self-renewal potential and a high cloning efficiency. Under appropriate culture conditions, individual clones of CD24 + CD133 + PEC could be induced to generate mature, functional, tubular cells with phenotypic features of proximal and/or distal tubules, osteogenic cells, adipocytes, and cells that exhibited phenotypic and functional features of neuronal cells. The injection of CD24 + CD133 + PEC but not of CD24 − CD133 − renal cells into SCID mice that had acute renal failure resulted in the regeneration of tubular structures of different portions of the nephron. More important, treatment of acute renal failure with CD24 + CD133 + PEC significantly ameliorated the morphologic and functional kidney damage. This study demonstrates the existence and provides the characterization of a population of resident multipotent progenitor cells in adult human glomeruli, potentially opening new avenues for the development of regenerative medicine in patients who have renal diseases.
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Citations
Some Concepts in Studies of Kidney Regeneration
Ena Ray Banerjee
- 01 Jan 2014
TL;DR: In this penultimate chapter, kidney stem cells, stem cell niche, and strategies by which stem cells from various sources including induced pluripotent stem cells have been used to generate lost renal tissue in chronic and acute kidney failure have been reviewed.
1
A Comprehensive Molecular Portrait of Human Urine-derived Renal Progenitor Cells
M. S. Rahman,Wasco Wruck,Lucas-Sebastian Spitzhorn,Martina Bohndorf,Soraia Martins,F. Asar,Audrey Ncube,Lars Erichsen,Nina Graffmann,James Adjaye +9 more
TL;DR: The in vitro model and data presented should lay the foundation for studying nephrogenesis in man and enable the generation of renal disease models in vitro and eventually kidney-associated regenerative therapies.
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Isolation and long-term expansion of a single adult human renal epithelial cell with efficient kidney regeneration capacity
Yujia Wang,Zixian Zhao,Qiwang Ma,Hao Nie,Yufen Sun,Xiaobei Feng,Ting Zhang,Yu Ma,Jing Nie,Wei Zuo +9 more
TL;DR: The ability to extensively propagate human SOX9+ REC in culture whilst concomitantly maintaining their intrinsic lineage differentiation commitment suggests their future application in regenerative medicine.
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