利用新旧工具探索人类和小鼠 P2X4 受体的药理差异。

IF 3 4区 医学 Q2 NEUROSCIENCES
Purinergic Signalling Pub Date : 2024-12-01 Epub Date: 2024-05-20 DOI:10.1007/s11302-024-10018-x
Anna Fortuny-Gomez, Samuel J Fountain
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引用次数: 0

摘要

人们对 P2X4 受体作为治疗多种心血管、炎症和神经疾病的靶点越来越感兴趣。探索 P2X4 生理和病理生理学作用的关键是获得选择性化合物,以探测细胞、组织和动物模型的功能。最近,P2X4 的选择性拮抗剂越来越多,但激动剂的选择性研究较少。由于不同物种的 P2X 受体之间存在一些已知的药理学差异,因此在设计药理学策略以探究 P2X4 在人体组织和小鼠模型中的功能时,了解这些差异非常重要。在这里,我们对表达人或小鼠 P2X4 同源物的 1321N1 细胞中的激动剂和拮抗剂药理学进行了系统比较。我们确定人 P2X4 的激动剂效力等级顺序为 ATP > 2-MeSATP > αβmeATP = BzATP > CTP = γ-[(丙炔基)-亚氨基]-ATP,小鼠为 ATP > 2-MeSATP = CTP > ATPγS = γ-[(丙炔基)-亚氨基]-ATP = BzATP。人的 P2X4 不被 ATPγS 激活,但能被 αβmeATP 激活。我们确定了人类 P2X4 的拮抗剂效力排序:BAY-1797 = PSB-12062 = BX-430 > 5-BDBD > TNP-ATP = PPADS;小鼠的拮抗剂效力排序:BAY-1797 > PSB-12062 = PPADS > TNP-ATP。小鼠 P2X4 不被 5-BDBD 或 BX-430 拮抗。该研究揭示了人和小鼠 P2X4 的主要药理差异,强调了在选择工具进行人鼠比较研究以及将一些常用激动剂的细胞反应归因于 P2X4 时应谨慎。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Pharmacological differences between human and mouse P2X4 receptor explored using old and new tools.

Pharmacological differences between human and mouse P2X4 receptor explored using old and new tools.

There is growing interest in the P2X4 receptor as a therapeutic target for several cardiovascular, inflammatory and neurological conditions. Key to exploring the physiological and pathophysiological roles of P2X4 is access to selective compounds to probe function in cells, tissues and animal models. There has been a recent growth in selective antagonists for P2X4, though agonist selectivity is less well studied. As there are some known pharmacological differences between P2X receptors from different species, it is important to understand these differences when designing a pharmacological strategy to probe P2X4 function in human tissue and mouse models. Here, we provide a systematic comparison of agonist and antagonist pharmacology in 1321N1 cells expressing either human or mouse P2X4 orthologues. We identify a rank order of agonist potency of ATP > 2-MeSATP > αβmeATP = BzATP > CTP = γ-[(propargyl)-imido]-ATP for human P2X4 and ATP > 2-MeSATP = CTP > ATPγS = γ-[(propargyl)-imido]-ATP = BzATP for mouse. Human P2X4 is not activated by ATPγS but can be activated by αβmeATP. We identify a rank order of antagonist potency of BAY-1797 = PSB-12062 = BX-430 > 5-BDBD > TNP-ATP = PPADS for human P2X4 and BAY-1797 > PSB-12062 = PPADS > TNP-ATP for mouse. Mouse P2X4 is not antagonised by 5-BDBD or BX-430. The study reveals key pharmacological differences between human and mouse P2X4, highlighting caution when selecting tools for comparative studies between human and mouse and ascribing cellular responses of some commonly used agonists to P2X4.

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来源期刊
Purinergic Signalling
Purinergic Signalling 医学-神经科学
CiteScore
6.60
自引率
17.10%
发文量
75
审稿时长
6-12 weeks
期刊介绍: Nucleotides and nucleosides are primitive biological molecules that were utilized early in evolution both as intracellular energy sources and as extracellular signalling molecules. ATP was first identified as a neurotransmitter and later as a co-transmitter with all the established neurotransmitters in both peripheral and central nervous systems. Four subtypes of P1 (adenosine) receptors, 7 subtypes of P2X ion channel receptors and 8 subtypes of P2Y G protein-coupled receptors have currently been identified. Since P2 receptors were first cloned in the early 1990’s, there is clear evidence for the widespread distribution of both P1 and P2 receptor subtypes in neuronal and non-neuronal cells, including glial, immune, bone, muscle, endothelial, epithelial and endocrine cells.
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