RNA-seq of prostate cancer cell lines co-culture with osteoblasts or osteoclasts
Ontology highlight
ABSTRACT:
ORGANISM(S): Homo sapiens
PROVIDER: GSE210729 | GEO | 2023/09/26
REPOSITORIES: GEO
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Project description:Prostate cancer cell lines grow in full serum under standard conditions were profiled on Agilent-014698 Human Genome CGH Microarray 105A. Digestion, labeling, hybridization and data analysis of genomic DNA were performed according to the Agilent Technologies (Santa Clara, CA) protocol version 6.0 for 105 K arrays. Ten prostate cancer cell lines were included in the profiling, 22RV1, C4-2B, CA-hpv-10, DU145, LAPC4, MDAPCa-2b, NCI660, PC3, VCaP, and WPE1-NB26. All cell lines were grown in accordance with the distributor's instructions. All samples except DU145 were hybridized once on 105k Agilent Human Genome CGH microarrays according to manufacturers instructions. Two replicate hybridizations were done for DU145 cell line. Human Adult Male Normal Genomic DNA (6 normal individuals, Promega, #G1471) was used as a reference in all hybridizations. DNA from cell line samples were labeled with Cy5 and DNA from reference were labeled with Cy3.
2011-02-01 | E-GEOD-26447 | biostudies-arrayexpress
Project description:Docetaxel is the standard first line therapy for hormone-refractory prostate cancer patients. Here we generated models of Docetaxel resistance in prostate cancer cells to study the molecular pathways that drive the acquisition of resistance to this therapy. We used microarrays to detail the global program of gene expression underlying the acquisition of Docetaxel resistance in prostate cancer cells. Parental Docetaxel-sensitive prostate cancer cell lines (DU145 and 22Rv1) and selected Docetaxel-resistant cells (DU145-DR and 22Rv1-DR) were harvested for RNA extraction and hybridization on Affymetrix microarrays. Samples were analyzed in triplicates in order to increase the resolution of expression profiles.
2012-10-02 | E-GEOD-36135 | biostudies-arrayexpress
Project description:The estrogen receptor (ER)M-NM-21 is successively lost during cancer progression, whereas its splice variant, ERM-NM-22, is expressed in advanced prostate cancer. The latter form of cancer often metastasizes to bone, and we wanted to investigate whether the loss of ERM-NM-21 and/or the expression of ERM-NM-22 affect such signaling pathways in prostate cancer. Using PC3 and 22Rv1 prostate cancer cell lines that stably express ERM-NM-21 or ERM-NM-22, we found that the ERM-NM-2 variants differentially regulate genes known to affect tumor behavior. We found that ERM-NM-21 repressed the expression of the bone metastasis regulator Runx2 in PC3 cells. By contrast, RUNX2 expression was up-regulated at the mRNA level by ERM-NM-22 in PC3 cells, whereas Slug was up-regulated by ERM-NM-22 in both PC3 and 22Rv1 cells. In addition, the expression of Twist1, a factor whose expression strongly correlates with high Gleason grade prostate carcinoma, was increased by ERM-NM-22. In agreement with the increased Twist1 expression, we found increased expression of Dickkopf homolog 1; Dickkopf homolog 1 is a factor that has been shown to increase the RANK ligand/osteoprotegerin ratio and enhance osteoclastogenesis, indicating that the expression of ERM-NM-22 can cause osteolytic cancer. Furthermore, we found that only ERM-NM-21 inhibited proliferation, whereas ERM-NM-22 increased proliferation. The expression of the proliferation markers Cyclin E, c-Myc, and p45(Skp2) was differentially affected by ERM-NM-21 and ERM-NM-22 expression. In addition, nuclear M-NM-2-catenin protein and its mRNA levels were reduced by ERM-NM-21 expression. In conclusion, we found that ERM-NM-21 inhibited proliferation and factors known to be involved in bone metastasis, whereas ERM-NM-22 increased proliferation and up-regulated factors involved in bone metastasis. Thus, in prostate cancer cells, ERM-NM-22 has oncogenic abilities that are in strong contrast to the tumor-suppressing effects of ERM-NM-21. The GFP vs. ERbeta1 comparison was carried out with three replicate dye-swaps, six arrays total. The GFP vs. ERbeta2 comparison was carried out with two replicate dye-swaps, four arrays total.
2012-10-03 | E-GEOD-35095 | biostudies-arrayexpress
Project description:RNA-seq for prostate cancer cell lines DU145 and 22RV1 with or without PAGE4 overexpression with hydrogen peroxide or PBS treatment
2019-01-01 | GSE119005 | GEO
Project description:Extracellular vesicles (EVs) play critical roles in regulating bone metastatic microenvironment through mediating intercellular communications. Here, we report a direct regulatory mode between tumor cells and osteoclasts in osteolytic metastasis of prostate cancer via vesicular miRNAs transfer. Combined analysis of miRNAs profiles both in tumor-derived small EVs (sEVs) and osteoclasts identified miR-152-3p as a potential osteolytic molecules. Further in vitro experiments showed that sEVs were enriched in miR-152-3p, which targets osteoclastogenic regulator MAFB. Blocking miR-152-3p in sEVs upregulated the expression of MAFB and impaired osteoclastogenesis in recipient osteoclasts. In vivo xenograft mouse model found that blocking of miR-152-3p in sEVs significantly rescued the loss of trabecular architecture, while systemic inhibition of miR-152-3p using antagomiR-152-3p reduced the osteolytic lesions of cortical bone while remaining the basic trabecular architecture. Together, our findings suggest that miR-152-3p carried by prostate cancer-derived sEVs deliver osteolytic signals from tumor cells to osteoclasts, facilitating osteolytic progression in bone metastasis.
2021-02-24 | GSE161419 | GEO
Project description:The estrogen receptor (ER)β1 is successively lost during cancer progression, whereas its splice variant, ERβ2, is expressed in advanced prostate cancer. The latter form of cancer often metastasizes to bone, and we wanted to investigate whether the loss of ERβ1 and/or the expression of ERβ2 affect such signaling pathways in prostate cancer. Using PC3 and 22Rv1 prostate cancer cell lines that stably express ERβ1 or ERβ2, we found that the ERβ variants differentially regulate genes known to affect tumor behavior. We found that ERβ1 repressed the expression of the bone metastasis regulator Runx2 in PC3 cells. By contrast, RUNX2 expression was up-regulated at the mRNA level by ERβ2 in PC3 cells, whereas Slug was up-regulated by ERβ2 in both PC3 and 22Rv1 cells. In addition, the expression of Twist1, a factor whose expression strongly correlates with high Gleason grade prostate carcinoma, was increased by ERβ2. In agreement with the increased Twist1 expression, we found increased expression of Dickkopf homolog 1; Dickkopf homolog 1 is a factor that has been shown to increase the RANK ligand/osteoprotegerin ratio and enhance osteoclastogenesis, indicating that the expression of ERβ2 can cause osteolytic cancer. Furthermore, we found that only ERβ1 inhibited proliferation, whereas ERβ2 increased proliferation. The expression of the proliferation markers Cyclin E, c-Myc, and p45(Skp2) was differentially affected by ERβ1 and ERβ2 expression. In addition, nuclear β-catenin protein and its mRNA levels were reduced by ERβ1 expression. In conclusion, we found that ERβ1 inhibited proliferation and factors known to be involved in bone metastasis, whereas ERβ2 increased proliferation and up-regulated factors involved in bone metastasis. Thus, in prostate cancer cells, ERβ2 has oncogenic abilities that are in strong contrast to the tumor-suppressing effects of ERβ1.
2012-10-03 | GSE35095 | GEO
Project description:Galiellalactone (GL) is a fungal metabolite that presents antitumor and anti-inflammatory activities in vitro and in vivo. Previous studies have shown that GL targets NF-KB and STAT3 pathways and induces G2/M cell cycle arrest in androgen-insensitive prostate cancer cells. In this study, we show that GL-induced cell cycle arrest is independent of the NF-KB and STAT3 pathways in DU145 and PC-3 cells, and also that GL did not affect cell cycling in androgen-sensitive prostate cancer cell such as LNCaP and 22Rv1 cells. In addition, we showed confluence resistance to GL in DU145 cells. Using a SWATH proteomic approach we identified the down-regulation of Nucleolar and spindle associated protein 1 (NUSAP1) under DU145 confluence and in LNCaP cells. Also, the inhibition of NUSAP1 by siRNAs induced resistance to GL in DU145 cells, suggesting that NUSAP1 may be a target for GL and could be useful as biomarker for responsiveness of the antitumor activity of GL.
2019-01-14 | PXD010993 | Pride
Project description:The reciprocal interaction between cancer cells and the tissue-specific stroma is critical for primary and metastatic tumor growth progression. Prostate cancer cells colonize preferentially bone (osteotropism), where they alter the physiological balance between osteoblast-mediated bone formation and osteoclast-mediated bone resorption, and elicit prevalently an osteoblastic response (osteoinduction). The molecular cues provided by osteoblasts for the survival and growth of bone metastatic prostate cancer cells are largely unknown. We exploited the sufficient divergence between human and mouse RNA sequences together with redefinition of highly species-specific gene arrays by computer-aided and experimental exclusion of cross-hybridizing oligonucleotide probes. This strategy allowed the dissection of the stroma (mouse) from the cancer cell (human) transcriptome in bone metastasis xenograft models of human osteoinductive prostate cancer cells (VCaP and C4-2B). As a result, we generated the osteoblastic bone metastasis-associated stroma transcriptome (OB-BMST). Subtraction of genes shared by inflammation, wound healing and desmoplastic responses, and by the tissue type-independent stroma responses to a variety of non-osteotropic and osteotropic primary cancers generated a curated gene signature (“Core” OB-BMST) putatively representing the bone marrow/bone-specific stroma response to prostate cancer-induced, osteoblastic bone metastasis. The expression pattern of three representative Core OB-BMST genes (PTN, EPHA3 and FSCN1) seems to confirm the bone specificity of this response. A robust induction of genes involved in osteogenesis and angiogenesis dominates both the OB-BMST and Core OB-BMST. This translates in an amplification of hematopoietic and, remarkably, prostate epithelial stem cell niche components that may function as a self-reinforcing bone metastatic niche providing a growth support specific for osteoinductive prostate cancer cells. The induction of this combinatorial stem cell niche is a novel mechanism that may also explain cancer cell osteotropism and local interference with hematopoiesis (myelophthisis). Accordingly, these stem cell niche components may represent innovative therapeutic targets and/or serum biomarkers in osteoblastic bone metastasis. Keywords: cancer, transcription-profile, bone, metastasis, stroma 3 samples of VCaP xenografted mouse bones (VCaP xenografts 1/2/3), 3 samples of C4-2B xenografted mouse bones (C4-2B xenografts 1/2/3), 2 samples of Ep156T xenografted mouse bones (Ep156T xenografts 1/2), 2 samples of sham-operated mouse bones (sham-operated bones 1/2) and 3 samples of intact mouse bones (intact bones 1/2/3) were profiled on Affymetrix Mouse Genome 430A 2.0 Arrays. Sample code: MVX stands for VCaP xenografts, MBM for Intact bone samples, MCX for C4-2B xenografts and MNX for Sham-operated bones samples
2014-12-09 | E-GEOD-22813 | biostudies-arrayexpress
Project description:Prostate cancer is the most common cancer in men and androgen receptor (AR) downstream signalings promote prostate cancer progression. Although androgen deprivation therapy is effective for treating prostate cancer, most tumors relapsed as castration-resistant prostate cancer (CRPC). We performed ChIP-seq analysis to investigate the role of important transcription factors and histone modifications using AR positive prostate cancer cells, LNCaP, CRPC model cells, 22Rv1 and DU145 cells.
2021-05-01 | GSE146886 | GEO
Project description:Time course data of normoxia- and hypoxia-treated prostate tumor cell lines (DU145, PC3, LNCaP, 22RV1) and primary prostate epithelial cells (four different donors) in three biological replicates.
2011-11-09 | E-TABM-948 | biostudies-arrayexpress