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Centennial Review: Metabolic microRNA - shifting gears in the regulation of metabolic pathways in poultry

机译:百年审查:代谢MicroRNA - 在家禽中调节代谢途径的转换齿轮

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摘要

Over 20 yr ago, a small noncoding class of RNA termed microRNA (miRNA) that was able to recognize sequences in mRNAs and inhibit their translation was discovered in Caenorhabditis elegans. In the intervening years, miRNA have been discovered in most eukaryotes and are now known to regulate the majority of protein-coding genes. It has been discovered that disruption of miRNA function often leads to the development of pathological conditions. One physiological system under extensive miRNA-mediated regulation is metabolism. Metabolism is one of the most dynamic of biological networks within multiple organs, including the liver, muscle, and adipose tissue, working in concert to respond to ever-changing nutritional cues and energy demands. Therefore, it is not surprising that miRNA regulate virtually all aspects of eukaryotic metabolism and have been linked to metabolic disorders, such as obesity, fatty liver diseases, and diabetes, just to name a few. Chickens, and birds in general, face their own unique metabolic challenges, particularly after hatching, when their metabolism must completely transform from using lipid-rich yolk to carbohydrate-rich feed as fuel in a very short period of time. Furthermore, commercial poultry breeds have undergone extensive selection over the last century for more desirable production traits, which has resulted in numerous metabolic consequences. Here, we review the current knowledge of miRNA-mediated regulation of metabolic development and function in chickens.
机译:超过20岁,在Caenorhabdise秀丽隐塞中发现了能够识别MRNA中序列的MicroRNA(miRNA)的小型非编码类RNA(miRNA)。在中间岁月中,MiRNA在大多数真核生物中被发现,现在已知在规范大部分蛋白质编码基因。已经发现,MiRNA功能的破坏通常导致病理条件的发展。在广泛的miRNA介导的调节下的一个生理系统是代谢。新陈代谢是多个器官内最动态的生物网络之一,包括肝脏,肌肉和脂肪组织,协同工作,以应对不断变化的营养线索和能源需求。因此,MiRNA规范的几乎所有方面都不令人惊讶于真核代谢的所有方面,并与代谢障碍相连,例如肥胖,脂肪肝疾病和糖尿病,只是为了命名几个。鸡和鸟类一般,面对自己独特的代谢挑战,特别是在孵化后,当他们的新陈代谢必须完全转化,从富含富含脂质的蛋黄到碳水化合物的富含碳水化合物,在很短的时间内燃料。此外,商业家禽品种在上个世纪经历了广泛的选择,以获得更理想的生产性状,这导致了许多代谢后果。在这里,我们审查了目前对miRNA介导的代谢发育调节和鸡功能的知识。

著录项

  • 期刊名称 Poultry Science
  • 作者单位
  • 年(卷),期 2021(100),3
  • 年度 2021
  • 页码 100856
  • 总页数 13
  • 原文格式 PDF
  • 正文语种
  • 中图分类
  • 关键词

    机译:新陈代谢;microRNA;生长;下一代测序;

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