The findings uncover an unappreciated mechanism linking rRNA modification to mitochondrial homeostasis through selective translational control, providing new insights into metabolic regulation and revealing actionable vulnerabilities in advanced prostate cancer.
This review comprehensively examines the structural biology, expression patterns, molecular mechanisms, and cancer-type-specific functions of both METTL5 and MGST1, with particular emphasis on their functional interdependence.
Abinash Nayak, S. Nishank· Molecular Biology Reports· 0 citations
It is demonstrated that IDH3A is significantly overexpressed in melanoma, primarily due to DNA copy number amplification, and a noncanonical role of IDH3A is uncovered as a nuclear regulator of transcription via YBX1, offering novel insight into metabolic enzyme reprogramming in melanoma.
Juan Ran, Yan-Chun Fang, Sheng-Ming Ruan et al.· Advancement of science· 0 citations
These results uncover a metabolism-epigenetics–cell cycle interface that may represent a therapeutic vulnerability in EGFR-mutant LUAD and identify a glycolysis–H4K8la–GAS2L3 axis that drives noncanonical cell-cycle reprogramming independently of classical Cyclin–CDK activation, thereby promoting acquired osimertinib r...
Shu-Man Zhen, Xiaohui Bai, Shu-Tang Liu et al.· Cell Death Discovery· 0 citations
Mechanistic investigations demonstrated that NAT10 elevates MARK2 expression, activating the mTOR/HIF-1α/C-Myc signaling cascade, thereby promoting aerobic glycolysis in PCa cells, suggesting that targeting ac4C mRNA modifications may provide a novel therapeutic strategy for managing prostate cancer.
Yi-Ming Zhang, Jian Wang, Gan-Ping Wang et al.· Cancer Gene Therapy· 0 citations
Although aerobic glycolysis is a hallmark of hepatocellular carcinoma (HCC) progression, the underlying epitranscriptomic mechanisms remain poorly understood. Here, we identify METTL15, an N4-methylcytidine (m4C) RNA methyltransferase, as a novel oncogenic driver of this metabolic reprogramming. METTL15 is significantl...
Longhui Xie, Ken Ning, Yu-Hu Wang et al.· International Journal of Bio...· 0 citations
The FEN1/EIF4A3/MUC1-C axis is established as a novel mechanism driving LUAD progression by concurrently regulating intrinsic malignancy and extrinsic immune evasion, presenting FEN1 targeting as a promising dual-hit therapeutic strategy.
Min Wu, Ben-Meng Wu, Xue-Bing Yan et al.· Cell Death and Disease· 0 citations
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