Correlation Engine 2.0
Clear Search sequence regions


  • endometriosis (11)
  • estradiol (1)
  • female (1)
  • humans (1)
  • lipoprotein (2)
  • mESCs (1)
  • METTL3 (18)
  • mettl3 protein, human (1)
  • mice (2)
  • MIR17HG (7)
  • n6 (8)
  • protein human (1)
  • rnas (1)
  • stromal cell (2)
  • Sizes of these terms reflect their relevance to your search.

    Inflammation and abnormal immune response are the key processes in the development of endometriosis (EMs), and m6A modification can regulate the inflammatory response. This study reveals that METTL3-mediated N6-methyladenosine (m6A) modification plays an important role in EMs. m6A modification is largely involved in the development of different diseases. This study intended to investigate the implication of m6A methylation transferase methyltransferase like 3 (METTL3) in EMs. EMs- and m6A-related mRNAs and long non-coding RNAs were identified through bioinformatics analysis. Next, EM mouse models established by endometrial autotransplantation and mouse endometrial stromal cell (mESC) were prepared and treated with oe-METTL3 or sh-MIR17HG for pinpointing the in vitro and in vivo effects of METTL3 on EMs in relation to MIR17HG through the determination of mESC biological processes as well as estradiol (E2) and related lipoprotein levels. We demonstrated that METTL3 and MIR17HG were downregulated in the EMs mouse model. Overexpression of METTL3 suppressed the proliferation, migration, and invasion of mESCs. In addition, METTL3 enhanced the expression of MIR17HG through m6A modification. Moreover, METTL3 could inhibit the E2 level and alter related lipoprotein levels in EMs mice through the upregulation of MIR17HG. The present study highlighted that the m6A methylation transferase METTL3 prevents EMs progression by upregulating MIR17HG expression.

    Citation

    Qian Li, Li Yang, Feng Zhang, Jiaxi Liu, Min Jiang, Yannan Chen, Chenchen Ren. m6A methyltransferase METTL3 inhibits endometriosis by regulating alternative splicing of MIR17HG. Reproduction (Cambridge, England). 2023 Feb 01;165(2):197-208

    Expand section icon Mesh Tags

    Expand section icon Substances


    PMID: 36445237

    View Full Text