Essential role of the IRF8-KLF4 transcription factor cascade in murine monocyte differentiation by Daisuke Kurotaki, Naoki Osato, Akira Nishiyama, Michio.

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Essential role of the IRF8-KLF4 transcription factor cascade in murine monocyte differentiation by Daisuke Kurotaki, Naoki Osato, Akira Nishiyama, Michio Yamamoto, Tatsuma Ban, Hideaki Sato, Jun Nakabayashi, Marina Umehara, Noriko Miyake, Naomichi Matsumoto, Masatoshi Nakazawa, Keiko Ozato, and Tomohiko Tamura Blood Volume 121(10):1839-1849 March 7, 2013 ©2013 by American Society of Hematology

Genome-wide behavior of IRF8 during monocyte/macrophage differentiation. Genome-wide behavior of IRF8 during monocyte/macrophage differentiation. Tot2 cells were transduced with empty MSCV-puro or MSCV-IRF8-puro vectors. Transduced cells were selected by puromycin. (A) Summary of the locations of IRF8 ChIP-seq peaks in IRF8-transduced Tot2 cells. ChIP-seq for IRF8 was performed on day 3. (B) Correlation between IRF8 binding and gene expression changes. Gene expression profiling by microarray was performed in biological duplicates on day 4. Genes were ranked in order of fold induction by IRF8. The frequencies of the presence of promoter-proximal or -distal IRF8 ChIP-seq peak(s) per gene were calculated in a sliding window comprising 1000 ranked genes. (C) The frequencies of genes with promoter-proximal and/or -distal IRF8 binding among the IRF8-upregulated genes. FC indicates fold change. (D) De novo DNA motif analysis of promoter-proximal (left panel) and promotor-distal (right panel) IRF8 binding sites in IRF8-upregulated genes. Numbers indicate the percentage of the ChIP-seq peaks containing the motif. The background frequency is shown in parentheses. (E) Heatmaps of promoter-distal IRF8 binding, H3K4me1, and PU.1 binding. ChIP-seq analyses for H3K4me1 and PU.1 were performed on day 3. Each horizontal line represents the density of indicated ChIP-seq tags in the 10-kb region centered on the promoter-distal IRF8 peak summit. “Cells: MSCV” indicates MSCV-puro–transduced cells. “Cells: IRF8” indicates MSCV-IRF8-puro–transduced cells. (F) Cumulative H3K4me1 and PU.1 levels around IRF8 ChIP-seq peak positions. Histograms of averaged ChIP-seq tag densities are presented. Daisuke Kurotaki et al. Blood 2013;121:1839-1849 ©2013 by American Society of Hematology

Transcription factors downstream of IRF8. Transcription factors downstream of IRF8. (A) Expression levels of transcription factor genes upregulated by IRF8 more than 10-fold are displayed as a heatmap (also see supplemental Table 6). Genes bound by IRF8 are indicated in red. (B-C) Known DNA binding motif analysis for transcription factors in the 1-kb proximal regions upstream of TSSs (B) or the distal enhancer (H3K4me1) regions (C) of indirect IRF8 target genes or all other genes not bound by IRF8. The upper panels indicate the frequency of genes with these motifs. (*) P < .05 (χ2 test). The lower panels indicate the Z-score. Daisuke Kurotaki et al. Blood 2013;121:1839-1849 ©2013 by American Society of Hematology

IRF8 and PU.1 binding and the H3K4me1 enhancer signature at the Klf4 gene locus. IRF8 and PU.1 binding and the H3K4me1 enhancer signature at the Klf4 gene locus. (A) UCSC genome browser image of tag density plots for IRF8, PU.1, and H3K4me1 ChIP-seq and input DNA at the Klf4 gene locus in empty MSCV-transduced Tot2 cells or IRF8-transduced Tot2 cells. H3K4me1 ChIP-seq peaks identified by SICER and PU.1 and IRF8 ChIP-seq peaks by HOMER are indicated as bars above the density plots. The genomic sequences of each IRF8 ChIP-seq peak are shown (peaks A-F; see also supplemental Figure 2). (B) Direct activation of the Klf4 gene by IRF8. IRF8-estrogen receptor (ER) –transduced Tot2 cells were treated with β-estradiol (Est) (1 µM) and cycloheximide (CHX) (1 µg/mL). CHX was added 10 minutes before the addition of Est. Transcript levels of Klf4 and Myc were quantified in biological triplicates by qRT-PCR. Data were normalized by Actb levels and shown as values relative to those in ER alone–transduced Tot2 cells treated under the same conditions (mean ± standard error). (*) P < .05 (Student t test). NS, not significant. Daisuke Kurotaki et al. Blood 2013;121:1839-1849 ©2013 by American Society of Hematology

Irf8−/− mice lack Ly6C+ monocytes and have fewer Ly6C− monocytes than WT mice. Irf8−/− mice lack Ly6C+ monocytes and have fewer Ly6C− monocytes than WT mice. (A-C) Monocytes (Mo) in the peripheral blood (A), spleen (B), and bone marrow (C) from WT or Irf8−/− mice. Monocytes were detected as CD11b+ CD115+ cells and then further analyzed for Ly6C expression. Splenic monocytes were first gated as side scatter (SSC)low cells. Bone marrow CD117+ cells were gated out to exclude progenitor cells. Absolute numbers (per 1 mL blood, per spleen, or per tibias plus femurs from a mouse) of Ly6C+ and Ly6C− monocytes are shown in the bar graphs. The ratios of Ly6C+ monocytes to Ly6C− monocytes are also shown. (D) Peripheral blood monocytes in mice that received bone marrow transplants. Irradiated WT recipients reconstituted using WT (WT→WT) or Irf8−/− (Irf8−/−→WT) bone marrow cells (1 × 107) or irradiated Irf8−/− recipients reconstituted using WT (WT→Irf8−/−) bone marrow cells (1 × 107) for 4 weeks were analyzed as in (A-C). All values are mean ± standard deviation from four mice of each genotype. (*) P < .05, (**) P < .01, and (***) P < .001 (Student t test). Daisuke Kurotaki et al. Blood 2013;121:1839-1849 ©2013 by American Society of Hematology

Inflammatory macrophages are severely diminished in Irf8−/− mice. Inflammatory macrophages are severely diminished in Irf8−/− mice. (A) Peritoneal exudate cells (PECs) from WT and Irf8−/− mice 4 days after the intraperitoneal injection of TG. Representative data from flow cytometric analysis and Wright-Giemsa stains are shown in the upper panels. The absolute numbers of total PECs and CD11b+ F4/80+ B220− Ly6G− cells are shown in the bottom bar graphs. Values are mean ± standard deviation from three mice of each genotype. (B) Bronchoalveolar lavage cells. The absolute numbers of CD11c+ F4/80+ alveolar macrophages are shown in the bar graph. Values are mean ± standard deviation from four mice of each genotype. (**) P < .01 (Student t test). NS, not significant. Daisuke Kurotaki et al. Blood 2013;121:1839-1849 ©2013 by American Society of Hematology

Irf8−/− MDPs do not express Klf4 mRNA. Irf8−/− MDPs do not express Klf4 mRNA. (A) Flow cytometric analysis of Lin− Sca-1− CD117int/+ CD115+ MDPs. Numbers in parentheses indicate percentages of MDPs relative to whole bone marrow cells. Similar results were obtained in three other independent experiments. (B) Lin− Sca-1− CD117int/+ CD115+ MDPs were isolated from WT and Irf8−/− mice by cell sorting. Klf4, Csf1r, and Kit mRNA expression levels were analyzed by qRT-PCR in triplicate using the ΔΔCT method and were normalized by comparison with levels of Gapdh (mean ± standard deviation). (**) P < .01, (***) P < .001 (Student t test). Daisuke Kurotaki et al. Blood 2013;121:1839-1849 ©2013 by American Society of Hematology

The IRF8-KLF4 axis regulates the development of monocytes. The IRF8-KLF4 axis regulates the development of monocytes. (A) Induction of KLF4 expression by IRF8. Tot2 cells transduced with empty MSCV-puro, MSCV-IRF8-puro, or MSCV-KLF4-FLAG-puro were analyzed by qRT-PCR in triplicate (mean ± standard deviation) and western blotting analysis on day 4. RAW264.7 cells were also loaded for comparison. Data are representative of three independent experiments with similar results. (***) P < .001 (Student t test). (B) Wright-Giemsa stains of Tot2 cells transduced with indicated MSCV. Cells were classified into three categories (differentiated, intermediate, and undifferentiated) on day 4 (mean ± standard deviation). (C) Induction of monocyte-related genes. Transcript levels were analyzed by qRT-PCR on day 4 as in (A). (D) Surface marker analysis. Cells on day 4 were stained with the indicated antibodies or isotype-matched control antibodies and analyzed by flow cytometry. Forward scatter (FSC)hi SSChi cells were gated to analyze differentiated cells. Data are representative of three independent experiments. (E) Venn diagram for the relationship between genes that displayed more than a 2-fold change in expression 2 days after transduction with IRF8 or KLF4. Gene expression profiling by microarray was performed in biological duplicates as in Figure 1. P values by Fisher’s exact test are indicated. Daisuke Kurotaki et al. Blood 2013;121:1839-1849 ©2013 by American Society of Hematology