The emerging role of metabolism in fibrosis

谷氨酰胺分解 糖酵解 纤维化 厌氧糖酵解 重编程 生物 医学 机制(生物学) 癌症研究 疾病 内分泌学 神经科学 生物信息学 新陈代谢 病理 生物化学 细胞 哲学 认识论
作者
John Henderson,Steven O’Reilly
出处
期刊:Trends in Endocrinology and Metabolism [Elsevier BV]
卷期号:32 (8): 639-653 被引量:77
标识
DOI:10.1016/j.tem.2021.05.003
摘要

Metabolism has emerged as a major driver of fibrotic diseases. Glycolytic shifts appear to be a key metabolic switch in stromal cells under fibrotic conditions regardless of aetiology. Glutaminolysis as well as glycolysis may be a therapeutic target in fibrosis. Immunometabolites exert antifibrotic effects and may be harnessed for therapeutic gain. The metabolic shift that cancer cells undergo towards aerobic glycolysis was identified as a defining feature in tumours almost 100 years ago; however, it has only recently become apparent that similar metabolic reprogramming is a key feature in other diseases – with fibrosis now entering the fray. In this perspective, an overview of the recent evidence implicating increased glycolysis and glutaminolysis as mediators of fibrosis is presented, with a particular emphasis on the novel therapeutic possibilities this introduces. Furthermore, the impact that metabolic reprogramming has on redox homeostasis is discussed, providing an insight into how this often-overlooked mechanism may drive the pathogenesis. The metabolic shift that cancer cells undergo towards aerobic glycolysis was identified as a defining feature in tumours almost 100 years ago; however, it has only recently become apparent that similar metabolic reprogramming is a key feature in other diseases – with fibrosis now entering the fray. In this perspective, an overview of the recent evidence implicating increased glycolysis and glutaminolysis as mediators of fibrosis is presented, with a particular emphasis on the novel therapeutic possibilities this introduces. Furthermore, the impact that metabolic reprogramming has on redox homeostasis is discussed, providing an insight into how this often-overlooked mechanism may drive the pathogenesis.
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