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3 - Isolation, purification and in vitro manipulation of human bone marrow stromal precursor cells

Published online by Cambridge University Press:  20 January 2010

Jon N. Beresford
Affiliation:
Bath Institute for Rheumatic Diseases
Maureen E. Owen
Affiliation:
Nuffield Orthopaedic Centre, Oxford
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Summary

Introduction

Precursors of the marrow stromal system

The cell types comprising the stromal tissue of the bone marrow (BM) include reticular cells, smooth muscle cells, adipocytes, osteoblasts and various different populations of vascular endothelial cells (Lichtman, 1981; Tavassoli & Friedenstein, 1983; Dexter et al., 1984; Allen, Dexter & Simmons, 1990). A similarly diverse population of stromal cells develops in vitro when BM cells are explanted under appropriate conditions, as originally described by Dexter and colleagues. This well-documented heterogeneity of marrow stromal cells has complicated attempts to characterise the biological properties of each cellular component, a problem compounded by the paucity of monoclonal antibody reagents which might facilitate precise identification and isolation of each cell type.

Studies in rodents and humans have shown that the bone marrow stroma has the ability to regenerate either following physical disruption of the marrow cavity or following high dose chemotherapy or radiation (Patt & Maloney, 1975; Simmons et al., 1987; Testa, Hendry & Molineux, 1988). Given the heterogeneity of the stromal cell population within the bone marrow microenvironment (BMME), it is not known whether all of the different stromal cell lineages have the capacity for self-renewal or, alternatively, whether each stromal cell type arises from the proliferation and differentiation of a common stromal stem cell pool. Putative BM stromal precursor cells (SPC) have been identified in a number of species, including humans, by their ability to generate colonies of cells morphologically resembling fibroblasts when single cell suspensions of BM are explanted at appropriate densities in liquid culture (Fig. 3.1).

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Publisher: Cambridge University Press
Print publication year: 1998

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