ABSTRACT: Tenuigenin inhibits the cell growth and proliferation by regulating the cell cycle and central carbon metabolism in cancer pathway in hepatocellular carcinoma
Project description:Diosmetin inhibits cells growth and proliferation by regulating cell cycle and lipid metabolism pathway in hepatocellular carcinoma
| PRJNA744624 | ENA
Project description:Phillygenin inhibits the tumorigenicity of hepatocellular carcinoma cell by interfering with the TCA cycle metabolism pathway
Project description:DRW1 controls gene expression contributed to hormone pathway, photosynthesis, carbon metabolism as well as cell division and proliferation . DRW1 controls RNA m5C levels of transcripts contributed to hormone pathway, photosynthesis, carbon metabolism.
Project description:One-carbon metabolism plays a crucial role in tumorigenesis as it supplies the one-carbon units necessary for nucleotide synthesis, epigenetic regulation, and redox metabolism, ensuring the rapid proliferation of cancer cells. However, their roles in prostate cancer progression remain poorly understood. In this study, we investigated the association between genetic variants in the one-carbon metabolism pathway and clinical outcomes in patients receiving androgen deprivation therapy for prostate cancer. The associations of 130 single-nucleotide polymorphisms located within 14 genes involved in the one-carbon metabolism pathway with cancer-specific survival (CSS), overall survival, and progression-free survival were assessed using Cox regression in 630 patients with prostate cancer. Subsequently, functional studies were performed using prostate cancer cell lines. After adjusting for covariates and multiple testing, MTHFD1L rs2073190 was found to be significantly associated with CSS (P = 0.000184). Further pooled analysis of multiple datasets demonstrated that MTHFD1L was upregulated in prostate cancer and increased MTHFD1L expression was positively correlated with tumor aggressiveness and poor patient prognosis. Functionally, MTHFD1L knockdown suppressed prostate cancer cell proliferation and colony formation. RNA sequencing and pathway analysis revealed that differentially expressed genes were predominantly enriched in the cell cycle pathway. In conclusion, genetic variants in MTHFD1L of one-carbon metabolism may serve as promising predictors, and our findings offer valuable insights into the underlying genetic mechanisms of prostate cancer progression.
Project description:Serine metabolism provides essential metabolites for cellular growth and proliferation, and also produces neurotransmitters. However, how serine metabolism coordinates with functional development of neurons remains unclear. We report neurotransmitter D-serine inhibit growth of immature cells. Metabolomic analysis of neural progenitors revealed that D-serine decreases glycine synthesis thereby diminishes one-carbon metabolism, in which L-serine is a crucial carbon donor. D-serine inhibits one-carbon metabolism by competing transport of cytosolic L-serine to mitochondria, which restrains proliferation and triggers apoptosis of neural progenitors as well as neural tumor cells, but not mature neurons, in vitro and ex vivo. This RNA-seq data supports the idea that D-serine inhibits polarization and growth/proliferation of immature neurons and further indicate that immature neurons counteracts D-serine-induced cellular stress through enhancing mitochondrial function, including energy synthesis.
Project description:DRW1 controls gene expression contributed to hormone pathway, photosynthesis, carbon metabolism as well as cell division and proliferation .
Project description:DRW1 controls H3K27me3 abundance contributed to hormone pathway, photosynthesis, carbon metabolism as well as cell division and proliferation .
Project description:Widely reported discrepancies between metabolic flux and transcripts or enzyme levels in bacterial metabolism imply complex regulation mechanisms need to be considered, especially in new bacterial platforms for bioremediation and bioproduction. Comamonas testosteroni strains, which metabolize various natural and xenobiotic aromatic compounds, represent such platforms whose metabolic regulations are still unknown. Here, we identify analogous multi-level regulation mechanisms in the metabolism of two lignin-related (4-hydroxybenzoate and vanillate) and one plastic-related (terephthalate) aromatic compounds in C. testosteroni KF-1, a wastewater isolate. Transcription-level regulation controlled initial catabolism and cleavage of the compounds, but subsequent carbon fluxes in central carbon metabolism are governed by metabolite-level thermodynamic regulation. Quantitative 13C-fingerprinting of tricarboxylic acid cycle and cataplerotic reactions elucidate key carbon routing that is not evident from enzyme abundance changes. Therefore, as-needed transcriptional activation of aromatic catabolism is coupled with metabolic fine-tuning of central metabolism, thus delineating pathway candidates for different metabolic manipulations.