Xiaoli Xu, Mancheng Zhang, Siyuan Zhan, Yuan Chen, Chengqi Wei, Jiaxue Cao, Jiazhong Guo, Dinghui Dai, Linjie Wang, Tao Zhong, Hongping Zhang, Li Li
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There were 3,266 A-to-I sites in the protein-coding region, out of which 113 missense sites recoded protein. Notably, five A-to-I sites in the 3' UTR of four genes (<i>TRAF6</i>, <i>NALF1</i>, <i>SLC38A1</i>, <i>ENSCHIG00000019092</i>) altered their targeted miRNAs. Furthermore, a total of 370 A-to-I sites with different editing levels were detected, including <i>FBN1</i>, <i>MYH10</i>, <i>GSK3B</i>, <i>CSNK1D</i>, and <i>PRKACB</i> genes. These genes were predominantly enriched in the cytoskeleton in muscle cells, the hippo signaling pathway, and the tight junction. Furthermore, we identified 14 hub genes (<i>TUFM</i>, <i>GSK3B</i>, <i>JAK2</i>, <i>RPSA</i>, <i>YARS1</i>, <i>CDH2</i>, <i>PRKACB</i>, <i>RUNX1</i>, <i>NOTCH2</i>, <i>CDC23</i>, <i>VCP</i>, <i>FBN1</i>, <i>RARS1</i>, <i>MEF2C</i>) that potentially related to muscle development. Additionally, 123 stage-specific A-to-I editing sites were identified, with 43 sites in GM, 25 in DM1, and 55 in DM5 samples. These stage-specific edited genes significantly enriched essential biological pathways, including the cell cycle, oocyte meiosis, motor proteins, and hedgehog signaling pathway.</p><p><strong>Conclusion: </strong>We systematically identified the RNA editing events in proliferating and differentiating goat MuSCs, which was crucial for expanding our understanding of the regulatory mechanisms of muscle development.</p>","PeriodicalId":12772,"journal":{"name":"Frontiers in Veterinary Science","volume":null,"pages":null},"PeriodicalIF":2.6000,"publicationDate":"2024-10-09","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC11496035/pdf/","citationCount":"0","resultStr":"{\"title\":\"Global A-to-I RNA editing during myogenic differentiation of goat MuSCs.\",\"authors\":\"Xiaoli Xu, Mancheng Zhang, Siyuan Zhan, Yuan Chen, Chengqi Wei, Jiaxue Cao, Jiazhong Guo, Dinghui Dai, Linjie Wang, Tao Zhong, Hongping Zhang, Li Li\",\"doi\":\"10.3389/fvets.2024.1439029\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><strong>Background: </strong>RNA editing, especially A-to-I editing sites, is a common RNA modification critical for stem cell differentiation, muscle development, and disease occurrence. Unveiling comprehensive RNA A-to-I editing events associated with myogenesis of the skeletal muscle satellite cells (MuSCs) is essential for extending our knowledge of the mechanism underpinning muscle development.</p><p><strong>Results: </strong>A total of 9,632 RNA editing sites (RESs) were screened in the myoblasts (GM), myocytes (DM1), and myotubes (DM5) samples. Among these sites, 4,559 A-to-I edits were classified and further analyzed. There were 3,266 A-to-I sites in the protein-coding region, out of which 113 missense sites recoded protein. Notably, five A-to-I sites in the 3' UTR of four genes (<i>TRAF6</i>, <i>NALF1</i>, <i>SLC38A1</i>, <i>ENSCHIG00000019092</i>) altered their targeted miRNAs. Furthermore, a total of 370 A-to-I sites with different editing levels were detected, including <i>FBN1</i>, <i>MYH10</i>, <i>GSK3B</i>, <i>CSNK1D</i>, and <i>PRKACB</i> genes. 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引用次数: 0
摘要
背景:RNA编辑,尤其是A-I编辑位点,是一种常见的RNA修饰,对干细胞分化、肌肉发育和疾病发生至关重要。揭示与骨骼肌卫星细胞(MuSCs)肌肉生成相关的全面RNA A-to-I编辑事件,对于扩展我们对肌肉发育机制的认识至关重要:结果:在肌母细胞(GM)、肌细胞(DM1)和肌管(DM5)样本中总共筛选出9632个RNA编辑位点(RES)。在这些位点中,4559个A-I编辑位点被分类并进一步分析。在蛋白质编码区有 3266 个 A 到 I 位点,其中 113 个错义位点重新编码了蛋白质。值得注意的是,4个基因(TRAF6、NALF1、SLC38A1、ENSCHIG00000019092)3'UTR中的5个A-to-I位点改变了它们的目标miRNA。此外,共检测到 370 个具有不同编辑水平的 A 到 I 位点,包括 FBN1、MYH10、GSK3B、CSNK1D 和 PRKACB 基因。这些基因主要富集在肌肉细胞的细胞骨架、海马信号通路和紧密连接中。此外,我们还发现了 14 个可能与肌肉发育有关的枢纽基因(TUFM、GSK3B、JAK2、RPSA、YARS1、CDH2、PRKACB、RUNX1、NOTCH2、CDC23、VCP、FBN1、RARS1、MEF2C)。此外,还发现了123个特定阶段的A-to-I编辑位点,其中43个位点在GM样本中,25个在DM1样本中,55个在DM5样本中。这些特定阶段的编辑基因明显富集了重要的生物通路,包括细胞周期、卵母细胞减数分裂、运动蛋白和刺猬信号通路:我们系统地鉴定了增殖和分化的山羊MuSCs中的RNA编辑事件,这对拓展我们对肌肉发育调控机制的理解至关重要。
Global A-to-I RNA editing during myogenic differentiation of goat MuSCs.
Background: RNA editing, especially A-to-I editing sites, is a common RNA modification critical for stem cell differentiation, muscle development, and disease occurrence. Unveiling comprehensive RNA A-to-I editing events associated with myogenesis of the skeletal muscle satellite cells (MuSCs) is essential for extending our knowledge of the mechanism underpinning muscle development.
Results: A total of 9,632 RNA editing sites (RESs) were screened in the myoblasts (GM), myocytes (DM1), and myotubes (DM5) samples. Among these sites, 4,559 A-to-I edits were classified and further analyzed. There were 3,266 A-to-I sites in the protein-coding region, out of which 113 missense sites recoded protein. Notably, five A-to-I sites in the 3' UTR of four genes (TRAF6, NALF1, SLC38A1, ENSCHIG00000019092) altered their targeted miRNAs. Furthermore, a total of 370 A-to-I sites with different editing levels were detected, including FBN1, MYH10, GSK3B, CSNK1D, and PRKACB genes. These genes were predominantly enriched in the cytoskeleton in muscle cells, the hippo signaling pathway, and the tight junction. Furthermore, we identified 14 hub genes (TUFM, GSK3B, JAK2, RPSA, YARS1, CDH2, PRKACB, RUNX1, NOTCH2, CDC23, VCP, FBN1, RARS1, MEF2C) that potentially related to muscle development. Additionally, 123 stage-specific A-to-I editing sites were identified, with 43 sites in GM, 25 in DM1, and 55 in DM5 samples. These stage-specific edited genes significantly enriched essential biological pathways, including the cell cycle, oocyte meiosis, motor proteins, and hedgehog signaling pathway.
Conclusion: We systematically identified the RNA editing events in proliferating and differentiating goat MuSCs, which was crucial for expanding our understanding of the regulatory mechanisms of muscle development.
期刊介绍:
Frontiers in Veterinary Science is a global, peer-reviewed, Open Access journal that bridges animal and human health, brings a comparative approach to medical and surgical challenges, and advances innovative biotechnology and therapy.
Veterinary research today is interdisciplinary, collaborative, and socially relevant, transforming how we understand and investigate animal health and disease. Fundamental research in emerging infectious diseases, predictive genomics, stem cell therapy, and translational modelling is grounded within the integrative social context of public and environmental health, wildlife conservation, novel biomarkers, societal well-being, and cutting-edge clinical practice and specialization. Frontiers in Veterinary Science brings a 21st-century approach—networked, collaborative, and Open Access—to communicate this progress and innovation to both the specialist and to the wider audience of readers in the field.
Frontiers in Veterinary Science publishes articles on outstanding discoveries across a wide spectrum of translational, foundational, and clinical research. The journal''s mission is to bring all relevant veterinary sciences together on a single platform with the goal of improving animal and human health.