Cell kinetic studies fail to identify sequentially proliferating progenitors as the major source of epithelial renewal in the adult murine prostate

There is evidence that stem cells and their progeny play a role in the development of the prostate. Although stem cells are also considered to give rise to differentiated progeny in the adult prostate epithelium ex vivo, the cohort of adult prostate stem cells in vivo as well as the mechanisms by wh...

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Veröffentlicht in:PloS one 2015-05, Vol.10 (5), p.e0128489-e0128489
Hauptverfasser: Pignon, Jean-Christophe, Grisanzio, Chiara, Carvo, Ingrid, Werner, Lillian, Regan, Meredith, Wilson, E Lynette, Signoretti, Sabina
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container_title PloS one
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creator Pignon, Jean-Christophe
Grisanzio, Chiara
Carvo, Ingrid
Werner, Lillian
Regan, Meredith
Wilson, E Lynette
Signoretti, Sabina
description There is evidence that stem cells and their progeny play a role in the development of the prostate. Although stem cells are also considered to give rise to differentiated progeny in the adult prostate epithelium ex vivo, the cohort of adult prostate stem cells in vivo as well as the mechanisms by which the adult prostate epithelium is maintained and regenerated remain highly controversial. We have attempted to resolve this conundrum by performing in vivo tracing of serially replicating cells after the sequential administration of two thymidine analogues to mice. Our results show that, during normal prostate homeostasis, sequentially proliferating cells are detected at a rate that is consistent with a stochastic process. These findings indicate that in vivo, under steady-state conditions, most adult prostate epithelial cells do not represent the progeny of a small number of specialized progenitors that generate sequentially replicating transit-amplifying (TA) cells but are formed by stochastic cell division. Similarly, no rapidly cycling TA cells were detected during regeneration following one cycle of androgen-mediated involution/regeneration of the prostate epithelium. These findings greatly enhance our understanding of the mechanisms regulating prostate epithelial cell renewal and may have significant implications in defining the cell of origin of proliferative prostatic diseases.
doi_str_mv 10.1371/journal.pone.0128489
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Although stem cells are also considered to give rise to differentiated progeny in the adult prostate epithelium ex vivo, the cohort of adult prostate stem cells in vivo as well as the mechanisms by which the adult prostate epithelium is maintained and regenerated remain highly controversial. We have attempted to resolve this conundrum by performing in vivo tracing of serially replicating cells after the sequential administration of two thymidine analogues to mice. Our results show that, during normal prostate homeostasis, sequentially proliferating cells are detected at a rate that is consistent with a stochastic process. These findings indicate that in vivo, under steady-state conditions, most adult prostate epithelial cells do not represent the progeny of a small number of specialized progenitors that generate sequentially replicating transit-amplifying (TA) cells but are formed by stochastic cell division. 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subjects Androgens
Animals
Biology
Cell division
Cell Proliferation - physiology
Epithelial cells
Epithelium
Epithelium - metabolism
Homeostasis
Laboratory animals
Male
Medical schools
Mice
Mutation
Pathology
Progenitor cells
Progeny
Prostate
Prostate - cytology
Prostate - metabolism
Prostate cancer
Regeneration
Replication
Rodents
Stem cell transplantation
Stem cells
Stem Cells - cytology
Stem Cells - metabolism
Stochastic models
Stochastic processes
Stochasticity
Studies
Thymidine
title Cell kinetic studies fail to identify sequentially proliferating progenitors as the major source of epithelial renewal in the adult murine prostate
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