Project description:In order to identify the TSA responsive genes, we performed a gene expression microarray analysis for the RNAs isolated from TSA-untreated and TSA-treated human keratinocytes
Project description:To explore how TSA-MSCexo improves myocardial ischemia-reperfusion injury, miRNA microarray analysis was used to screen differentially expressed miRNAs in MSCexo and TSA-MSCexo.
Project description:To explore TSA influence on human breast cancer cells, we attempt to analyze genes differentially expressed between TSA treated and untreated SKBR3 cells, which will hopefully provide clues for TSA target genes.
Project description:Analysis of MDA-MB-231 cells following TSA treatment or not. TSA regulates various miRNA expression in MDA-MB-231 cells.Results provide insight into the role of miRNAs-involved mechanisms underlying TSA-mediated effects on breast cancer stemness.
Project description:Firstly our study demonstrated that TSA can inhibits cell proliferation, induces cell apoptosis and cell cycle arrest in CCA cell lines in vitro. To identify the target transcripts of TSA to suppress CCA tumorigenesis, mRNA expression profiles were determined by microarray analysis. We chose TFK-1 cells treated by TSA in indicated concentration (IC50) 48 hours for the microarray. Then we found out TACC3 was downregulated, and demonstrated that TACC3 was high expression and may played a role as an target of TSA in inhibiting CCA cells proliferation and migration via in vitro and vivo experiments.
Project description:The goal of this study is to learn about the safety and tolerance of autologous TSA-DC cell and evaluate the efficacy and feasibility of the cell therapy compared to the patients’ past standard regimen. 20 gastrointestinal solid tumors subjects failed from at least one systemic therapy will be enrolled into the trial and receive a succession of treatment of TSA-DC vaccine.
Project description:Endothelial progenitors represent one of the most promising cell-based strategies for vascular repair of ischemic tissue damage, including limb ischemia, myocardial infarction and stroke. We have shown that the transcription factor TAL1 regulates a transcription program that drives the migration and adhesion of ECFCs. Furthermore, treatment of ECFCs with the HDAC inhibitor TSA increases the expression of TAL1-dependent genes and promotes the migration, chemotaxis and adhesion of ECFCs. Finally, ex vivo treatment with TSA also improves the vascular repair properties of ECFCs in vivo when these cells are transplanted in a mouse model of hindlimb ischemia. The goal of this experiment was to test whether TSA treatment of ECFCs affect TAL1 genomic binding. TAL1 ChIP-sequencing was performed from ECFCs that have been treated or not TSA. As negative controls, we performed Mock-ChIP-seq from the same samples using normal IgG instead of the TAL1 antibody. Overall, we find that there is no change in TAL1 genomic binding in ECFCs upon TSA treatment.
