Transcriptional and epigenetic landscapes of RMS cell lines and primary tumors. Transcriptional and epigenetic landscapes of RMS cell lines and primary.

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Transcriptional and epigenetic landscapes of RMS cell lines and primary tumors. Transcriptional and epigenetic landscapes of RMS cell lines and primary tumors. A, Strategy for identifying MTFs from RNA-seq and ChIP-seq datasets. B, RNA sequencing of patient RMS tumors reveals a set of candidate MTFs (n = 170) identified by filtering for significant overexpression (P < 1E−30) across one or both RMS subtypes, and removal of general TFs (those ubiquitously expressed in all tumors and tissues). Candidates were ranked and plotted based on average overall expression in fusion-positive RMS (cell lines and tissues) and myoblasts/myotubes. C, Violin plots of gene expression of MYOD1, MYOG, and MYCN across RMS, myoblasts, myotubes, and normal tissues. D, H3K27ac binding at distal enhancers ranked by increasing signal in cell lines and primary tumors bearing PAX3–FOXO1 translocation. Super enhancers (SE) were identified as those beyond the inflection point where rapid increase in signal is observed (indicated by a dashed gray line). TF genes associated with SEs are indicated in blue. E, Number of RH4 SEs which occur as enhancers (n = 765) and SEs in FP-RMS cell lines or tumors (n = 466), or which also appear in FN-RMS as SEs (n = 337). F, Enrichment of known recognition sequences for MYOD, MYOG, PAX3–FOXO1, and MYCN, compared with no enrichment for CTCF in FP-RMS SEs. G, Reduction in cell viability upon siRNA against PAX3, MYOD1, MYOG, and MYCN in FN-RMS (RD, CTR) and FP-RMS (RH4, RH5) cells. PAX3 siRNAs targeted the first few exons, which are intact in the fusion PAX3–FOXO1. CellTiter-Glo was used to measure viability, and all data were normalized to cells treated with scrambled siRNA. Bars show median (error bars = range) of 3 independent siRNA sequences (RH5, RD, and CTR) or 2 independent sequences (RH4). Experiments were performed at 48 hours of transient siRNA transfection. H, MYOD1 enhancers are bound by PAX3–FOXO1 and loaded with active histone mark H3K27ac in RH4 cells (top) and are progressed through myogenesis (middle) and are absent in other cell and tissue types (overlapping plots, bottom). ENCODE and Epigenome Roadmap data tracks are provided at WashU Epigenome browser session http://epigenomegateway.wustl.edu/browser/?genome=hg19&session=IHfj0MDWoA&statusId=728028850. iPS, induced pluripotent stem cells; ESC, embryonic stem cells. I, Myogenic enhancers at PAX3–FOXO1 binding sites diminish through muscle differentiation. RPM, reads per million mapped reads. FP-RMS signal is from RH4 cells, myoblasts, and myotubes are from ENCODE; skeletal muscle data are from a normal tissue sample. J, Same enhancer locations as I interrogated for H3K27ac signal in RH4 cells treated with shRNA for 48 hours (shScramble or shPAX3–FOXO1). Signal was normalized to spike-in Drosophila reads (ChIP with reference exogenous genome, ChIP-Rx) and are plotted as reference adjusted reads per 10 million (RRPTM). Berkley E. Gryder et al. Cancer Discov 2017;7:884-899 ©2017 by American Association for Cancer Research