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MOB1b
EXPERIMENTAL ANIMALS · 2023 · IF 2.4

The compensatory increase of GLIS3 inhibited neuronal apoptosis through regulating MOB1b: a possible strategy for the functional recovery after spinal cord injury

Hong-Bo YANG,Ying LI,Xiu-Hai LI,Qing-Ming YAN,Xian-Zhang HAN,Jian CAO,Hong-Peng SANG,Jin-Long LI

Spinal cord injury (SCI) is a devastating disease characterized by neuronal apoptosis. Gli-similar 3 (GLIS3), a transcriptional factor, was involved in cell apoptosis and associated with the transcription of downstream target genes related to neuronal function. However, the function of GLIS3 in SCI remains unknown. Therefore, we used the mouse model of SCI to explore the role of GLIS3 in SCI. The results showed that GLIS3 expression was significantly increased in spinal cord tissues of SCI mice, and GLIS3 overexpression promoted the functional recovery, reserved histological changes, and inhibited neuronal apoptosis after SCI. Through online tools, the potential target genes of GLIS3 were analyzed and we found that Mps One Binder Kinase Activator 1b (MOB1b) had a strong association with SCI among these genes. MOB1b is a core component of Hippo signaling pathway, which was reported to inhibit cell apoptosis. MOB1b expression was significantly increased in mice at 7 days post-SCI and GLIS3 overexpression further increased its expression. Dual-luciferase reporter assay revealed that GLIS3 bound to the promoter of MOB1b and promoted its transcription. In conclusion, our findings reveal that the compensatory increase of GLIS3 promotes functional recovery after SCI through inhibiting neuronal apoptosis by transcriptionally regulating MOB1b. Our study provides a novel target for functional recovery after SCI.

CAS / MDL: 1330-20-7 47165-04-8
研究领域: 神经科学 · 分子生物学 · 转录调控
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Genes & Diseases · 2020 · IF 4.803

MiR-743a-5p regulates differentiation of myoblast by targeting Mob1b in skeletal muscle development and regeneration

YongSheng Zhang,YiLong Yao,ZiShuai Wang,Dan Lu,YuanYuan Zhang,Adeyinka Abiola Adetula,SiYuan Liu,Min Zhu,YaLan Yang,XinHao Fan,MuYa Chen,YiJie Tang,Yun Chen,YuWen Liu,GuoQiang Yi,ZhongLin Tang

The microRNAs (miRNAs) play an important role in regulating myogenesis by targeting mRNA. However, the understanding of miRNAs in skeletal muscle development and diseases is unclear. In this study, we firstly performed the transcriptome profiling in differentiating C2C12 myoblast cells. Totally, we identified 187 miRNAs and 4260 mRNAs significantly differentially expressed that were involved in myoblast differentiation. We carried out validation of microarray data based on 5 mRNAs and 5 miRNAs differentially expressed and got a consistent result. Then we constructed and validated the significantly up- and down-regulated mRNA-miRNA interaction networks. Four interaction pairs (miR-145a-5p- Fscn1, miR-200c-5p- Tmigd1, miR-27a-5p- Sln and miR-743a-5p- Mob1b ) with targeted relationships in differentiated myoblast cells were demonstrated. They are all closely related to myoblast development. Gene Ontology (GO) and Kyoto Encyclopedia of Genes and Genomes (KEGG) analysis indicated cell cycle signals important for exploring skeletal muscle development and disease. Functionally, we discovered that miR-743a targeting gene Mps One Binder Kinase Activator-Like 1B ( Mob1b ) gene in differentiated C2C12. The up-regulated miR-743a can promote the differentiation of C2C12 myoblast. While the down-regulated Mob1b plays a negative role in differentiation. In addition, the expression profile of miR-743a and Mob1b are consistent with skeletal muscle recovery after Cardiotoxin (CTX) injury. Our study revealed that miR-743a-5p regulates myoblast differentiation by targeting Mob1b involved in skeletal muscle development and regeneration. Our findings made a further exploration for mechanisms in myogenesis and might provide potential possible miRNA-based target therapies for skeletal muscle regeneration and disease in the near future.

研究领域: 分子生物学 · 肌肉发育 · 再生医学 · 基因调控
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