Cooperative signaling between cytokine receptors and the glucocorticoid receptor in the expansion of erythroid progenitors: molecular analysis by expression.

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Cooperative signaling between cytokine receptors and the glucocorticoid receptor in the expansion of erythroid progenitors: molecular analysis by expression profiling by Andrea Kolbus, Montserrat Blázquez-Domingo, Sebastian Carotta, Walbert Bakker, Susanna Luedemann, Marieke von Lindern, Peter Steinlein, and Hartmut Beug Blood Volume 102(9):3136-3146 November 1, 2003 ©2003 by American Society of Hematology

Cooperation of Dex with Epo and SCF to induce renewal divisions of erythroid progenitors. Cooperation of Dex with Epo and SCF to induce renewal divisions of erythroid progenitors. (A) Erythroid progenitor cells can be expanded in vitro in the presence of Epo, SCF, and Dex. In the presence of Epo alone, they undergo terminal differentiation into mature enucleated erythrocytes, while addition of Dex and SCF leads to an expansion of immature erythroid progenitors (renewal). The expression of c-MYB and GATA1 was detected by Northern blot analysis on RNA isolated from erythroid progenitors differentiated from 0 to 72 hours in the presence of Epo (10 U/mL). Hybridization with NF-E2 was taken as a control for differentiation. (B) The I/11 erythroid progenitors were factor deprived for 4 hours (4h starvation) and subsequently restimulated with Epo (2 U/mL), SCF (100 ng/mL), and either Dex (10–6 M) or the GR antagonist ZK (3 × 10–6 M). Cells were harvested at the indicated times, and the expression of the indicated genes was analyzed by Northern blot analysis. Hybridization with GAPDH cDNA was performed as a loading control. Andrea Kolbus et al. Blood 2003;102:3136-3146 ©2003 by American Society of Hematology

Generation of a hematopoietic cDNA microarray. Generation of a hematopoietic cDNA microarray. (A) Two cDNA libraries enriched for T-cell– and erythroid-specific transcripts, respectively, by SSH were spotted onto glass slides (hematopoietic microarray) and hybridized with Cy5-labeled cDNA derived from I/11 erythroid cells (red) and Cy3-labeled cDNA derived from CD4+ T cells (green). Only a small, typical section of the microarray containing approximately 9000 clones is shown. (B) The I/11 erythroid progenitors were factor deprived for 4 hours and subsequently restimulated with Epo, SCF, and either Dex or the GR antagonist ZK for 2 hours. Cy3-labeled cDNA was generated from Epo/SCF/ZK–treated cell samples; Cy5-labeled cDNA from Epo/SCF/Dex–treated cells and both labeled cDNAs were hybridized to the hematopoietic microarray. In a control experiment, the cyanin dyes for labeling of the cDNAs were exchanged (Dex-Cy3 and ZK-Cy5). Some typical clones up- or down-regulated by Epo/SCF/Dex treatment as compared with Epo/SCF/ZK are boxed. Andrea Kolbus et al. Blood 2003;102:3136-3146 ©2003 by American Society of Hematology

Expression regulation of the putative GR-target genes RIKEN9230106B05, VDUP1, BTG1, and CXCR4 by Epo/SCF and Dex. Expression regulation of the putative GR-target genes RIKEN9230106B05, VDUP1, BTG1, and CXCR4 by Epo/SCF and Dex. (A) The fold changes (2log values) of gene expression detected on the hematopoietic microarrays comparing cDNA of factor-depleted I/11 erythroid progenitors treated with Epo/SCF/Dex (ESD) or Epo/SCF/ZK (ESZK) for the indicated times are shown (ESD compared with ESZK). The number of clones (n) representing each of the above genes on the hematopoietic microarray is indicated. (B) Expression of the indicated genes was subsequently determined by real-time RT-PCR. RNA levels of factor-depleted I/11 erythroid progenitors restimulated with ESD or ESZK for indicated times were compared with RNA levels of control cells factor deprived for 4 hours (NF). The fold changes of cytokine/hormone restimulation versus factor deprivation alone are shown as 2log values. (C) RNA levels of proliferating erythroid progenitors derived from either GRdim/dim fetal livers or wt littermates were compared by real-time RT-PCR. Fold changes of GRdim/dim over wt are idicated as 2log-values. The –fold regulation is shown as 2log values of fold induction or repression; for instance, a 2-fold induction and 4-fold repression yield values of 1 and –2, respectively. Mean values and standard deviations from 2 separate experiments repeated in duplicate are shown. Andrea Kolbus et al. Blood 2003;102:3136-3146 ©2003 by American Society of Hematology

Cooperation of Epo, SCF, and Dex in the regulation of the erythroid gene expression program. Cooperation of Epo, SCF, and Dex in the regulation of the erythroid gene expression program. Erythroid progenitors were factor deprived and restimulated with Epo, Dex, SCF, Epo/SCF, Epo/SCF/Dex, or Epo/SCF/ZK. Cy5-labeled cDNA synthesized from mRNA of restimulated cells was hybridized in parallel with Cy3-labeled cDNA synthesized from factor-deprived cells to the hematopoietic and the 17K EST arrays. (A) Hierarchic clustering (obtained with the use of Pearson correlation function) of 1200 clones that showed an alteration in gene expression greater than 1.75-fold up- or down-regulation for Epo or SCF, or greater than 1.5-fold up- or down-regulation for Dex. The color scale representing –fold up-regulation (red) or down-regulation (blue) of gene expression is shown on the left. (B) Bar graphs of clones selected for up- or down-regulation by Epo, Dex, or SCF showing the gene regulation by all other factor combinations versus factor deprivation. Fold changes are indicated on the vertical axes as 2log values. Left column shows down-regulated genes; right column, up-regulated genes. The numbers of preselected, regulated genes/ESTs are indicated in the different panels. Andrea Kolbus et al. Blood 2003;102:3136-3146 ©2003 by American Society of Hematology

Expression profiles of the putative GR-target genes VDUP1, MMP-2, and GILZ in response to Epo, SCF, Dex, and combinations thereof. Expression profiles of the putative GR-target genes VDUP1, MMP-2, and GILZ in response to Epo, SCF, Dex, and combinations thereof. (A, microarray) Mean fold changes (2log values) of gene expression detected on the microarrays for the genes indicated, comparing cDNA of factor-depleted I/11 erythroid progenitors with cells subsequently treated with Epo (E), SCF (S), Dex (D), Epo/SCF (ES), Epo/SCF/Dex (ESD), or Epo/SCF/ZK (ESZK) for 2 hours. The number of clones representing each of the genes on the microarrays is indicated (n). (A, RT-PCR) Expression of the indicated genes was subsequently determined by real-time RT-PCR. RNA levels of factor-depleted and restimulated cells (as indicated) were compared with RNA levels of factor-deprived cells. Fold changes of restimulation versus factor deprivation are indicated as 2log values. (B) RNA levels of factor-depleted I/11 erythroid progenitors restimulated with Epo/SCF/Dex (ESD) or Epo/SCF/ZK (ESZK) for the indicated time periods were compared with RNA levels of cells factor deprived for 4 hours (NF). Fold changes of restimulation versus factor deprivation are indicated as 2log values. (C) RNA levels of proliferating erythroid progenitors derived from either GRdim/dim fetal livers or wt littermates (used either as primary cells [prim] or after immortalization in culture [imm]) were determined by real-time RT-PCR. Fold changes of GRdim/dim over wt are indicated as 2log values. Mean values and standard deviations from 2 separate experiments repeated in duplicate are shown. Andrea Kolbus et al. Blood 2003;102:3136-3146 ©2003 by American Society of Hematology