Nucleosome-Driven Transcription Factor Binding and Gene Regulation

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Nucleosome-Driven Transcription Factor Binding and Gene Regulation Cecilia Ballaré, Giancarlo Castellano, Laura Gaveglia, Sonja Althammer, Juan González-Vallinas, Eduardo Eyras, Francois Le Dily, Roser Zaurin, Daniel Soronellas, Guillermo P. Vicent, Miguel Beato  Molecular Cell  Volume 49, Issue 1, Pages 67-79 (January 2013) DOI: 10.1016/j.molcel.2012.10.019 Copyright © 2013 Elsevier Inc. Terms and Conditions

Figure 1 Genome-wide Analysis of PRbs and Progestin Regulated Genes (A) ChIP-seq experiments using an anti-PR antibody were performed in T47D-MTVL cells untreated (T0) or stimulated with R5020 for 5 (R5), 30 (R30), 60 (R60), or 360 (R360) min. An overview of the identified PRbs is shown. Stable PRbs: present in at least two time points. (B) Enrichment of PR binding in response to R5020 in three progesterone-responsive genes: CDKN1A (promoter), FKBP5 (intronic), and FOS (−14 kb from TSS). Black arrows: previously reported PRbs. (C) Gene expression response to R5020 treatment was evaluated with Agilent Whole Human Genome microarrays. (D) Correlation between PRbs and gene expression in response to R5020: PRbs density was calculated by dividing the total number of PR-peaks associated to each gene category (up-, down-, and nonregulated genes) by the total amount of base pairs that this category occupies in the genome. PR-peaks were assigned to a gene when located from −10 kb upstream of the TSS to +5 kb downstream of the TTS. Peak density in the genome was calculated by considering random distribution of all PRbs in the whole genome. ∗∗p value < 2.2 × 10−16; ∗p value < 3.2 × 10−5. (E) PRbs in R5020 induced genes. Top and bottom 10% correspond to the 10% most and least induced genes, respectively. A PRbs was assigned to a gene when it was located in a window from 10 kb upstream of the TSS to 5 kb downstream of the TTS. (F) Identification of a PRE consensus sequence in the PRbs. V$PRE.01: previously reported PRE motif (Nelson et al., 1999); V$GREF: matrix family corresponding to PR, GR, and AR. See SupplementalExperimental Procedures for details. (Over-Rep, over representation with respect to equally sized samples of genomic background.) (G) PRE consensus motif identified in the most significant PRbs. Molecular Cell 2013 49, 67-79DOI: (10.1016/j.molcel.2012.10.019) Copyright © 2013 Elsevier Inc. Terms and Conditions

Figure 2 Genome-wide DNaseI Hypersensitivity and Nucleosome Occupancy in the PRbs (A) DNaseI hypersensitivity before and after 1 hr R5020 treatment is plotted as the average profile of normalized DNaseI-reads counted around the center of all PRbs. (B) Nucleosome occupancy before and after 1 hr R5020 treatment is plotted as the average profile of normalized MNaseI-reads counted around the center of all PRbs. (C) Heat maps of nucleosome occupancy (left) and DNaseI hypersensitivity (right) around the PRbs before and after hormone treatment. (Red, high; black, low.) PRbs (24,436 sites observed at 60 min treatment) are sorted according to the nucleosome remodeling index (NRI) in descending order. (D) PR binding, DNaseI hypersensitivity, and nucleosome occupancy are shown for three representative PRbs associated to R5020 upregulated genes. Nucleosome occupancy is plotted as the profile of normalized MNase-reads before (red) and after (blue) treatment. (E and F) Nucleosome occupancy (E) and DNaseI hypersensitivity (F) over PRbs with high (upper panel) and low (lower panel) NRI. (G) DHS overlapping with PRbs with high (upper panel) and low (lower panel) NRI. Figure represents the percentages of PRbs that overlap with DHS. (DHST0, DHS already present in unstimulated cells; DHSR60, DHS generated following hormone induction; DHST0–DHSR60, DHS present in unstimulated cells and maintained after stimulation.) Molecular Cell 2013 49, 67-79DOI: (10.1016/j.molcel.2012.10.019) Copyright © 2013 Elsevier Inc. Terms and Conditions

Figure 3 Functional PRbs Undergo Nucleosome Remodeling Following Hormone Stimulation (A) Genomic distribution of PRbs with high and low NRI. (B) Correlation between NRI and strength of PR binding (average number of PR-reads per PRbs). Inset: boxplot comparing PR-read density (number of reads/bp) in high and low NRI PRbs. p value < 0.0001. (C and D) Correlation between NRI and gene expression. (C) Density of high and low NRI PRbs calculated as reported in Figure 1D. (D) The distance between the PR-peaks and the TSS of the closest R5020 regulated gene is plotted for high and low NRI PRbs. Inset: boxplot comparing the distance to proximal R5020 regulated gene (TSS) for high and low NRI PRbs. p value < 0.0001. (E) Nucleosome occupancy in PRbs identified after 5 min R5020 treatment. Stable (upper panel): PRbs that remain at least until 60 min treatment. Transient (lower panel): only detected at 5 min treatment. (F) Density of R5 transient and stable PRbs calculated as reported in Figure 1D. Molecular Cell 2013 49, 67-79DOI: (10.1016/j.molcel.2012.10.019) Copyright © 2013 Elsevier Inc. Terms and Conditions

Figure 4 PRbs at Enhancers and Promoters Exhibit High Nucleosome Occupancy and Remodeling (A) Boxplot comparing the distances to the TSS of the closest R5020-regulated gene in the different sets of PRbs. ∗p value < 0.0001. (B) RNA polymerase II (RNAPII) occupancy at PRbs. ChIP-seq with an antibody against total RNAPII was performed in unstimulated cells. Figure shows the average profile of RNAPII signal around the different sets of PRbs. (C) Boxplot comparing the RNA-seq signal around the PRbs located in promoter, enhancer, and nonclassified PRbs. (D) Interaction of a distal PRbs (putative enhancer H3K4me1+/p300+) with the promoter region in a progestin induced gene, EGFR. Chromosome capture assay (3C) was performed in cells treated 0, 5, or 30 min with R5020. Upper panel: map showing the location of HindIII sites and 3C primers. Lower panel: 3C PCR results obtained on chromatin from cells untreated or treated with R5020, digested with HindIII, and incubated or not with T4 DNA Ligase. (E) Nucleosome occupancy before and after hormone treatment over the different sets of PRbs. Molecular Cell 2013 49, 67-79DOI: (10.1016/j.molcel.2012.10.019) Copyright © 2013 Elsevier Inc. Terms and Conditions

Figure 5 Chromatin Remodeling around PRbs Is Accompanied by Displacement of Histones H1, H2A, and H2B (A) Average profile of BPTF signal around the PRbs. ChIP-seq data (Vicent et al., 2011) were used to analyze BPTF occupancy in PRbs with high (left) and low (right) NRI. (B–E) Histone displacement and Brg1 recruitment in PRbs. Cells untreated or hormone-stimulated were subjected to ChIP assays with antibodies to histones H1 (B), H3 and H4 (C), Brg1 (D), and H2A and H2B (E). A total of 11 PRbs with high NRI (left) and 11 with low NRI (right) were evaluated. Histograms show the quantification of the results by qPCR from two experiments performed in duplicate. Averages and SD are shown. ∗p value < 0.05. Molecular Cell 2013 49, 67-79DOI: (10.1016/j.molcel.2012.10.019) Copyright © 2013 Elsevier Inc. Terms and Conditions

Figure 6 Model for Functional PR Binding in Response to Progestin Stimulation (A) Functional PREs are organized in nucleosomes. Upon hormone binding, the activated PR reaches the target PREs in association with histone tail modifiers and chromatin remodeling complexes that contact the histones stabilizing PR binding. (B) In PREs that are not organized in nucleosomes, histone tail modifiers and nucleosome remodelers cannot interact with histones; therefore, binding of PR is weaker and not functional. Molecular Cell 2013 49, 67-79DOI: (10.1016/j.molcel.2012.10.019) Copyright © 2013 Elsevier Inc. Terms and Conditions