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Mechanisms of signalling and biased agonism in G protein-coupled receptors

机译:G蛋白偶联受体中信号传导和偏向激动的机制

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摘要

G protein-coupled receptors (GPCRs) are the largest group of cell surface receptors in humans that signal in response to diverse inputs and regulate a plethora of cellular processes. Hence, they constitute one of the primary drug target classes. Progress in our understanding of GPCR dynamics, activation and signalling has opened new possibilities for selective drug development. A key advancement has been provided by the concept of biased agonism, which describes the ability of ligands acting at the same GPCR to elicit distinct cellular signalling profiles by preferentially stabilizing different active conformational states of the receptor. Application of this concept raises the prospect of 'designer' biased agonists as optimized therapeutics with improved efficacy and/or reduced side-effect profiles. However, this application will require a detailed understanding of the spectrum of drug actions and a structural understanding of the drug-receptor interactions that drive distinct pharmacologies. The recent revolution in GPCR structural biology provides unprecedented insights into ligand binding, conformational dynamics and the control of signalling outcomes. These insights, together with new approaches to multi-dimensional analysis of drug action, are allowing refined classification of drugs according to their pharmacodynamic profiles, which can be linked to receptor structure and predictions of preclinical drug efficacy.
机译:G蛋白偶联受体(GPCR)是人类中最大的细胞表面受体,其在响应各种输入和调节血清细胞过程中的信号。因此,它们构成了主要药物目标类别之一。我们对GPCR动力学,激活和信号传导的了解的进展已经开辟了选择性药物发展的新可能性。通过偏见激动主义的概念提供了一个关键进步,该激动主义的概念描述了用作相同GPCR的配体通过优先稳定受体的不同活性构象状态来引发不同的细胞信号传导型材的能力。本概念的应用提高了“设计师”偏见的激动剂作为优化治疗剂的前景,具有改善的疗效和/或减少副作用型材。然而,本申请需要详细了解药物作用的光谱和对驱动不同药剂学的药物受体相互作用的结构理解。最近GPCR结构生物学的革命提供了前所未有的洞察配体绑定,构象动态和信号结果的控制。这些见解与新的药物作用的多维分析的新方法一起允许根据其药效流学性谱来精制分类,这可以与受体结构和对临床前药物功效的预测相关。

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    Monash Univ Monash Inst Pharmaceut Sci Drug Discovery Biol Parkville Vic Australia;

    Monash Univ Monash Inst Pharmaceut Sci Drug Discovery Biol Parkville Vic Australia;

    MRC Lab Mol Biol Francis Crick Ave Cambridge Biomed Campus Cambridge England;

    MRC Lab Mol Biol Francis Crick Ave Cambridge Biomed Campus Cambridge England;

    Monash Univ Monash Inst Pharmaceut Sci Drug Discovery Biol Parkville Vic Australia;

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  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类 分子生物学;
  • 关键词

  • 入库时间 2022-08-20 04:29:07

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