ABSTRACT: Prostate cancer is the most common cancer in men and AR downstream signalings promote prostate cancer cell proliferation. We identified RUNX1 is an androgen-regulated gene. In order to investigate the RUNX1 function in prostate cancer cells, we performed gene expression in AR-positive prostate cancer cell lines after siRUNX1 treatment. We also treated cells with vehicle or androgen to analyzed the effects of RUNX1 on AR function. Observation of androgen dependent gene expression changes after treatmet with siRNAs targeting RUNX1 with microarray.
Project description:Prostate cancer is the most common cancer in men and AR downstream signalings promote prostate cancer cell proliferation. We identified androgen-regulated genes, CTBP2, FOXP1 and RUNX1. These factors interact with AR ligand dependently. In order to investigate androgen-regulated gene functions in prostate cancer cells, we performed gene expression in AR-positive prostate cancer cell lines after siRNA treatment. We also treated cells with vehicle or androgen to analyzed the effects of these genes on AR function. Observation of androgen dependent gene expression changes after treatment with siRNAs targeting FOXP1, CTBP2 and FOXA1 with microarray.
Project description:Prostate cancer is the most common cancer in men and AR downstream signalings promote prostate cancer cell proliferation. We identified a novel androgen-regulated long non-coding (lnc) RNA, SOCS2-AS1. In order to investigate the SOCS2-AS1 function in prostate cancer cells, we performed gene expression in AR-positive prostate cancer cell lines (LNCaP and LTAD) after siSOCS2-AS1 or siSOCS2 treatment. We also treated cells with vehicle or androgen to analyzed the effects of siSOCS2-AS1 on AR function. Observation of androgen dependent gene expression changes after treatmet with siSOCS2-AS1 with microarray.
Project description:Prostate cancer is the most common cancer in men and Androgen receptor (AR) downstream signalings promote prostate cancer cell proliferation. We identified androgen-regulated long non-coding RNA, CTBP1-AS, located in the antisese region of CTBP1 gene. CTBP1-AS activate AR signaling by epigenetically repress AR-associated cofactors such as CTBP1 by interactign with RNA-binding protein PSF and recruiting HDAC complex to the target promoters. In order to investigate the CTBP1-AS and PSF function in prostate cancer cells, we performed gene expression in AR-positive prostate cancer cell lines after siPSF or siCTBP1-AS treatment. We also treated cells with vehicle or androgen to analyzed the effects of CTBP1-AS and PSF on AR function. Observation of androgen dependent gene expression changes after treatmet with siRNAs targeting CTBP1-AS and PSF with microarray.
Project description:Prostate cancer is the most common cancer in men and AR downstream signalings promote prostate cancer cell proliferation. Oct1 is an AR interacting partner and regulates the transcriptional activity of AR. In order to investigate the Oct1 function in prostate cancer cells, we performed gene expression in AR-positive prostate cancer cell lines after siOct1 or pyrrole-imidazole (PI) polyamide targeting Oct1-binding treatment. We also treated cells with vehicle or androgen to analyze the effects of Oct1 on AR function. Observation of androgen dependent gene expression changes after treatment with siOct1 or polyamide targeting Oct1 with microarray.
Project description:Prostate cancer is the most common cancer in men and AR downstream signalings promote prostate cancer cell proliferation. We identified RUNX1 is an androgen-regulated gene. In order to investigate the RUNX1 function in prostate cancer cells, we performed gene expression in AR-positive prostate cancer cell lines after siRUNX1 treatment. We also treated cells with vehicle or androgen to analyzed the effects of RUNX1 on AR function.
Project description:Prostate cancer is the most common cancer in men and androgen receptor (AR) downstream signalings promote prostate cancer cell proliferation. To investigate the AR signaling, we performed directional RNA sequence analysis in AR positive prostate cancer cell line, LNCaP and VCaP. Using Noncode and GENCODE data sets. We identified androgen-regulated long non-coding RNAs (lncRNAs) in prostate cancer cells. Directional RNA sequence analysis of androgen-regulated lncRNAs in prostate cancer cells
Project description:Prostate cancer is the most common cancer in men and AR downstream signalings promote prostate cancer cell proliferation. To investigate the AR signaling, we performed RNA sequence analysis in AR positive prostate cancer cell line, LNCaP. RNA sequence analysis of androgen-regulated transcripts in prostate cancer cells
Project description:Prostate cancer is the most common cancer in men and AR downstream signalings promote prostate cancer cell proliferation. To investigate the AR signaling, we performed short RNA sequence analysis in AR positive prostate cancer cell line, LNCaP. In addition, we used hormone-refractory prostate cancer model cells, Bicalutamide-resistant (BicR) to explore the differences of androgen signaling in prostate cancer progression. Short RNA sequence analysis of androgen-regulated miRNAs in two prostate cancer cells
Project description:Prostate cancer is the most common cancer in men and AR downstream signalings promote prostate cancer cell proliferation. To investigate the AR signaling, we performed RNA sequence analysis in AR positive prostate cancer cell line, LNCaP. In addition, we used hormone-refractory prostate cancer model cells, Bicalutamide-resistant (BicR) to explore the differences of androgen signaling in prostate cancer progression. Short RNA sequence analysis of androgen-regulated miRNAs in two prostate cancer cells
Project description:Prostate cancer is the most common cancer in men and AR downstream signalings promote prostate cancer cell proliferation. We identified androgen-regulated genes, CTBP2, FOXP1 and RUNX1. These factors interact with AR ligand dependently. In order to investigate androgen-regulated gene functions in prostate cancer cells, we performed gene expression in AR-positive prostate cancer cell lines after siRNA treatment. We also treated cells with vehicle or androgen to analyzed the effects of these genes on AR function.