Expression data from DLD1 cells following H19 knockdown
Ontology highlight
ABSTRACT: Knockdown of H19 leads to cell cycle arrest, reduced cell proliferation, and reduced cell migration in DLD1 cells. We used microarrays to detail the global programme of gene expression following H19 knockdown in DLD1 cells
Project description:Knockdown of H19 leads to cell cycle arrest, reduced cell proliferation, and reduced cell migration in HCT116 cells. We used microarrays to detail the global programme of gene expression following H19 knockdown in HCT116 cells
Project description:Galangin, a natural flavonoid, derived from honey and Alpinia officinarum Hance (Zingiberaceae) has excellent was anti-tumor and anti-inflammatory properties. w It has been extensively studied as a novel therapeutic agent forhich was widely used in the treatment of various cancers. However, the effect of galangin in HCC remains elusive. Using RNA sequencing, the differential expression of LncRNA in MHCC97H cells treated with galangin was investigated in the present study. Furthermore, the expression of H19 was also determined in MHCC97H cells following treatment with galangin. And the effect of knockdown and overexpression of H19 on cell apoptosis, cell cycle, migration and invasion of HCC cells was also evaluated. Moreover, the in vivo effect of galangin on tumor development was also determined in nude mice. This study identified aT total of 50 LncRNAs were to be significantly differentially expressed by RNA-seq analysis in MHCC97H cells treated with galangin. It has been demostreated that noncoding RNA H19 are abnormally expressed in different cancers. Our results showed that Besides, the expression of H19 was markedly reduced after following treatment with galangin treatment in MHCC97H cells. In addition, galangin could increase the occurrence of cell apoptosis. Moreover, compared to the Control group, the galangin-treated group inhibited cell migration and invasion in MHCC97H cells.To further investigated if H19 expression pattern affect cell apoptosis, migration and invasion, knock down and overexpression of H19 vector were constructed. The results of the knockdown of H19 expression showed knock down of H19 expression increased cell apoptosis and decreasedinhibited invasion. In addition, RNA-seq data showed also identified 161 mRNA which were was significantly differentially expressed after following treatment withof galangin. To further determine the underlying mechanism,confirmed cell apoptosis, p53 protein and its related proteins were was analyzed through micor RNA 675-3p (miR675-3p) which was in the H19 locus. Notably, Tthe results indicatedshowed that reduced knockdown of H19 and miR675 induced the protein expression of p53, eventually promoting cell apoptosis expression of H19 and miR675-3p increased p53 expression in MHCC97H cells. These results indicated that galangin promoted cell apoptosis through the regulation of H19 and miR675 expression in MHCC97H cells. Furthermorely, galangin was used to treated in nude mice. Tthe in vivo result showed that compared to the Control group, inhibited tumor growth was remarkably suppressed and reduced expression of H19 in galangin-treated group. Taken together, these results indicated that galangin regulated cell apoptosis which associate with p53 protein through H19 and miR675 expression in MHCC97H cells.Collectively, our data suggested that galangin plays a role in hepatocarcinogenesis through regulation of H19 expression pattern.
Project description:DLD1 is an APC mut, KRAS mut, P53 mut CRC cell line. PROX1 transcription factor, target of Wnt pathway in CRC, is our protein of interest.DLD1 cells are PROX1 negative. We overexpressed through lentiviral expression PROX1 protein or the empty vector psd44, through selection of the cells in puromycin resistance. Afterwards we compared the transcriptional program of the DLD1-PROX1 and DLD1-Control cells growing in monolayer in vitro.
Project description:We used Methyl-MiniSeq platform from Zymo Research company to identify genome-wide methylation changes affected by lncRNA H19 knockdown in myotubes. Following H19 knockdown, we observed extensive genome-wide mthylation pattern changes relative to siCon cells, with some genes showing incresed methylation, others showing decreased methylation, and a third group with no significant change. Myotubes differentiated from mouse C3H myoblasts were transfected with either control siRNA or siH19, 48h later, cellular genomic DNA was extracted and subjected to genome-scale DNA methylation mapping using the platform of an improved version of Reduced Representation Bisulfite Sequencing (RRBS).
Project description:We report the effect of H19 knockdown on genome wide methylation by Enhanced Reduced Representation Bisulfite Sequencing (eRBBS) to detect quantitative base pair changes. Differential methylation genome wide analysis was done on NEPC derived organoid expressing shH19 or a control vector.
Project description:Treatment of pathological cardiac remodeling and subsequent heart failure represents an unmet clinical need. The well conserved lncRNA H19 shows as powerful therapeutic potential in the treatment of pathological cardiac hypertrophy. H19 is strongly repressed in failing hearts from mice, pigs and humans. Gene therapy using murine but also human H19 strongly attenuated heart failure even when cardiac hypertrophy was already established. Using microarray , GSEA and ChIP-Seq we identified a link between H19 and NFAT signalling. H19 physically interacts with PRC2 to epigenetically induced Tescalcin repression which in turn leads to reduced NFAT expression and activity.
Project description:We used Methyl-MiniSeq platform from Zymo Research company to identify genome-wide methylation changes affected by lncRNA H19 knockdown in myotubes. Following H19 knockdown, we observed extensive genome-wide mthylation pattern changes relative to siCon cells, with some genes showing incresed methylation, others showing decreased methylation, and a third group with no significant change.
Project description:We used high throughput sequencing to compare the differential gene expression of HepG2 cells with and without H19 knockdown. We found critical genes involved in glucose production changed significantly after H19 konckdown compared to control.