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. 1979 Jun 1;149(6):1314–1325. doi: 10.1084/jem.149.6.1314

The influence of steroid hormone metabolites on the in vitro development of erythroid colonies derived from human bone marrow

PMCID: PMC2184901  PMID: 448289

Abstract

Certain C19 and C21 steroid metabolites, when incubated with normal human bone marrow cells in culture, increased the number of erythroid colonies in the presence of erythropoietin. Among a number of pairs of C5 epimeric steroids tested, most 5beta (A:B cis) steroids stimulated the growth of both early erythroid progenitor cells (BFU-E) and late erythroid progenitor cells (CFU-E), whereas only a few 5alpha-(A:B trans) steroids stimulated the growth of CFU-E. No 5alpha-compounds of six pairs of steroids studied were found to stimulate BFU-E formation. This structure-activity relationship conforms with that previously observed in studies of steroid induction of ALA-synthase in avian embryo liver cells and hemoglobin synthesis in the cultured avian blastoderm. When human bone marrow cells were preincubated with the steroids for 2 d, followed by incubation with erythropoietin, only the 5 beta-compounds stimulated the growth of BFU-E. Similarly, when addition of steroids was delayed in relation to erythropoietin in the culture, only the 5 beta-derivative of a pair of C5 epimeric compounds displayed an enhancing effect on the growth of BFU-E. This effect required that the steroid addition be made no later than 48 h after initiation of the culture. These data demonstrate that certain natural steroid metabolites significantly stimulate erythropoiesis in normal human bone marrow cells in culture. They also indicate that 5 beta- compounds are more stimulatory than their 5 alpha-epimers, and they suggest that these 5 beta-steroids act preferentially on very primitive erythroid progenitor cells, probably on BFU-E.

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Selected References

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