JMJD1A inhibits proliferation and aggressiveness of gastric cancer by up-regulating RUNX3
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ABSTRACT:
ORGANISM(S): Homo sapiens
PROVIDER: GSE145105 | GEO | 2020/02/12
REPOSITORIES: GEO
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Project description:JMJD1A inhibits proliferation and aggressiveness of gastric cancer by up-regulating RUNX3
| PRJNA606040 | ENA
Project description:Gastric cancer metastasis is a major cause of mortality worldwide. Inhibition of RUNX3 in gastric cancer cell lines reduced migration, invasion, and anchorage independent growth in vitro. Following splenic inoculation, CRISPR-mediated RUNX3-knockout HGC-27 cells show suppression of xenograft growth and liver metastasis. We interrogated the potential of RUNX3 as a metastasis driver in gastric cancer by profiling its target genes. Transcriptomic analysis revealed strong involvement of RUNX3 in the regulation of multiple developmental pathways, consistent with the notion that RUNX family genes are master regulators of development. RUNX3 promoted “cell migration” and “extracellular matrix” programs, which are necessary for metastasis. Of note, we found pro-metastatic genes WNT5A, CD44 and VIM among the top differentially expressed genes in RUNX3-knockout versus control cells. Chromatin immunoprecipitation sequencing and HiChIP analyses revealed that RUNX3 bound to the enhancers and promoters of these genes, suggesting that they are under direct transcriptional control by RUNX3. We show that RUNX3 promoted metastasis in part through its upregulation of WNT5A to promote migration, invasion, and anchorage-independent growth in various malignancies. Our study therefore reveals the RUNX3-WNT5A axis as a key targetable mechanism for gastric cancer metastasis.
2023-12-20 | GSE250480 | GEO
Project description:Gastric cancer metastasis is a major cause of mortality worldwide. Inhibition of RUNX3 in gastric cancer cell lines reduced migration, invasion, and anchorage independent growth in vitro. Following splenic inoculation, CRISPR-mediated RUNX3-knockout HGC-27 cells show suppression of xenograft growth and liver metastasis. We interrogated the potential of RUNX3 as a metastasis driver in gastric cancer by profiling its target genes. Transcriptomic analysis revealed strong involvement of RUNX3 in the regulation of multiple developmental pathways, consistent with the notion that RUNX family genes are master regulators of development. RUNX3 promoted “cell migration” and “extracellular matrix” programs, which are necessary for metastasis. Of note, we found pro-metastatic genes WNT5A, CD44 and VIM among the top differentially expressed genes in RUNX3-knockout versus control cells. Chromatin immunoprecipitation sequencing and HiChIP analyses revealed that RUNX3 bound to the enhancers and promoters of these genes, suggesting that they are under direct transcriptional control by RUNX3. We show that RUNX3 promoted metastasis in part through its upregulation of WNT5A to promote migration, invasion, and anchorage-independent growth in various malignancies. Our study therefore reveals the RUNX3-WNT5A axis as a key targetable mechanism for gastric cancer metastasis.
2023-12-20 | GSE250207 | GEO
Project description:Gastric cancer metastasis is a major cause of mortality worldwide. Inhibition of RUNX3 in gastric cancer cell lines reduced migration, invasion, and anchorage independent growth in vitro. Following splenic inoculation, CRISPR-mediated RUNX3-knockout HGC-27 cells show suppression of xenograft growth and liver metastasis. We interrogated the potential of RUNX3 as a metastasis driver in gastric cancer by profiling its target genes. Transcriptomic analysis revealed strong involvement of RUNX3 in the regulation of multiple developmental pathways, consistent with the notion that RUNX family genes are master regulators of development. RUNX3 promoted “cell migration” and “extracellular matrix” programs, which are necessary for metastasis. Of note, we found pro-metastatic genes WNT5A, CD44 and VIM among the top differentially expressed genes in RUNX3-knockout versus control cells. Chromatin immunoprecipitation sequencing and HiChIP analyses revealed that RUNX3 bound to the enhancers and promoters of these genes, suggesting that they are under direct transcriptional control by RUNX3. We show that RUNX3 promoted metastasis in part through its upregulation of WNT5A to promote migration, invasion, and anchorage-independent growth in various malignancies. Our study therefore reveals the RUNX3-WNT5A axis as a key targetable mechanism for gastric cancer metastasis.
2023-12-20 | GSE250479 | GEO
Project description:In this study, RUNX3 expression was analyzed in normal and malignant haematopoiesis and the impact of its dysregulation on myelopoiesis was further determined. We found that RUNX3 was highly expressed in haematopoietic progenitors, with its levels reducing towards granulocytic differentiation. In AML, RUNX3 was overexpressed across all different subtypes except in core binding factor AML where it was downregulated. RUNX3 overexpression in human haematopoietic stem and progenitor cells (HSPC) inhibited myeloid development, particularly granulopoiesis. Further RNA-sequencing studies showed that RUNX3 overexpression downregulates key hematopoietic genes, while upregulating certain lymphoid genes. Overall, this study suggests that increased RUNX3 expression could contribute to the myeloid block characteristic of AML by possibly driving a competing transcriptional program favoring the lymphoid fate.
2022-04-13 | GSE181059 | GEO
Project description:Analysis of gene expresssion altered upon knockdown of histone demethylase JMJD1A in human prostate cancer cells. The objective is to elucidate the transcriptional programs that are controlled by JMJD1A in human prostate cancer. CWR22Rv1 prostate cancer cells were transduced with lentiviral particles encoding control pLKO.1 or JMJD1A shRNA (shJMJD1A). After 48 h, total RNAs were collected for the microarray analysis to determine the differentially expressed genes between Rv1 pLKO.1 and Rv1 shJMJD1A samples.
2015-09-08 | E-GEOD-70498 | biostudies-arrayexpress
Project description:Background & Aims: RUNX transcription factors play pivotal roles in embryonic development and neoplasia. We previously identified the single missense mutation R122C in RUNX3 from human gastric cancer. However, how RUNX3R122C mutation disrupts stem cell homeostasis and promotes gastric carcinogenesis remained unclear. Methods: To understand the oncogenic nature of this mutation in vivo, we generated the RUNX3R122C knock-in mice. Stomach tissues were harvested, followed by histological and immunofluorescence staining, organoid culture, flow cytometry to isolate gastric corpus isthmal and non-isthmal epithelial cells, and RNA extraction for transcriptomic analysis. Results: The corpus tissue of RUNX3R122C/R122C homozygous mice exhibited a precancerous phenotype such as spasmolytic polypeptide-expressing metaplasia (SPEM). We observed mucous neck cell hyperplasia, massive reduction of pit, parietal, and chief cell populations, as well as a dramatic increase in the number of rapidly proliferating isthmal stem/progenitor cells in the corpus of RUNX3R122C/R122C mice. Transcriptomic analyses of the isolated epithelial cells showed that the cell cycle-related MYC target gene signature was enriched in the corpus epithelial cells of RUNX3R122C/R122C mice compared with the wild-type corpus. Mechanistically, RUNX3R122C mutant protein disrupted the regulation of the restriction point where cells decide to enter either proliferative or quiescent state, thereby driving stem cell expansion and limiting the ability of cells to terminally differentiate. Conclusions: RUNX3R122C missense mutation is associated with the continuous cycling of isthmal stem/progenitor cells, maturation arrest and development of a precancerous state. This work highlights the importance of RUNX3 in prevention of metaplasia and gastric cancer.
2021-12-05 | GSE190081 | GEO
Project description:Background & Aims: RUNX transcription factors play pivotal roles in embryonic development and neoplasia. We previously identified the single missense mutation R122C in RUNX3 from human gastric cancer. However, how RUNX3R122C mutation disrupts stem cell homeostasis and promotes gastric carcinogenesis remained unclear. Methods: To understand the oncogenic nature of this mutation in vivo, we generated the RUNX3R122C knock-in mice. Stomach tissues were harvested, followed by histological and immunofluorescence staining, organoid culture, flow cytometry to isolate gastric corpus isthmal and non-isthmal epithelial cells, and RNA extraction for transcriptomic analysis. Results: The corpus tissue of RUNX3R122C/R122C homozygous mice exhibited a precancerous phenotype such as spasmolytic polypeptide-expressing metaplasia (SPEM). We observed mucous neck cell hyperplasia, massive reduction of pit, parietal, and chief cell populations, as well as a dramatic increase in the number of rapidly proliferating isthmal stem/progenitor cells in the corpus of RUNX3R122C/R122C mice. Transcriptomic analyses of the isolated epithelial cells showed that the cell cycle-related MYC target gene signature was enriched in the corpus epithelial cells of RUNX3R122C/R122C mice compared with the wild-type corpus. Mechanistically, RUNX3R122C mutant protein disrupted the regulation of the restriction point where cells decide to enter either proliferative or quiescent state, thereby driving stem cell expansion and limiting the ability of cells to terminally differentiate. Conclusions: RUNX3R122C missense mutation is associated with the continuous cycling of isthmal stem/progenitor cells, maturation arrest and development of a precancerous state. This work highlights the importance of RUNX3 in prevention of metaplasia and gastric cancer.
2021-12-13 | GSE190506 | GEO
Project description:Global gene expression effects of silencing Jmjd1a and Jmjd2c genes We used microarrays to detail the global programme of gene expression after silencing Jmjd1a gene and Jmjd2c gene separately Keywords: dose response
2007-09-29 | GSE8937 | GEO
Project description:Analysis of gene expresssion altered upon knockdown of histone demethylase JMJD1A in human prostate cancer cells. The objective is to elucidate the transcriptional programs that are controlled by JMJD1A in human prostate cancer.
2015-09-08 | GSE70498 | GEO