Erythropoietin and the use of a transgenic model of erythropoietin-deficient mice

A. Pichon, Florine Jeton, R. El Hasnaoui-Saadani, L. Hagström, T. Launay, M. Beaudry, D. Marchant, P. Quidu, J. Macarlupú, F. Favret, J. Richalet, N. Voituron
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引用次数: 15

Abstract

Despite its well-known role in red blood cell production, it is now accepted that erythropoietin (Epo) has other physiological functions. Epo and its receptors are expressed in many tissues, such as the brain and heart. The presence of Epo/Epo receptors in these organs suggests other roles than those usually assigned to this protein. Thus, the aim of this review is to describe the effects of Epo deficiency on adaptation to normoxic and hypoxic environments and to suggest a key role of Epo on main physiological adaptive functions. Our original model of Epo-deficient (Epo-TAgh) mice allowed us to improve our knowledge of the possible role of Epo in O2 homeostasis. The use of anemic transgenic mice revealed Epo as a crucial component of adaptation to hypoxia. Epo-TAgh mice survive well in hypoxic conditions despite low hematocrit. Furthermore, Epo plays a key role in neural control of ventilatory acclimatization and response to hypoxia, in deformability of red blood cells, in cerebral and cardiac angiogenesis, and in neuro- and cardioprotection.
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促红细胞生成素及促红细胞生成素缺乏小鼠转基因模型的应用
尽管它在红细胞生成中的作用众所周知,但现在人们认为促红细胞生成素(Epo)还有其他生理功能。促生成素及其受体在许多组织中表达,如大脑和心脏。促生成素/促生成素受体在这些器官中的存在表明,与通常分配给这种蛋白质的功能不同,促生成素/促生成素受体具有其他功能。因此,本综述的目的是描述Epo缺乏对适应常氧和低氧环境的影响,并提出Epo在主要生理适应功能中的关键作用。我们最初的Epo缺陷(Epo- tagh)小鼠模型使我们能够提高我们对Epo在氧稳态中可能作用的认识。对贫血转基因小鼠的研究表明,促红细胞生成素是适应缺氧的重要组成部分。尽管红细胞压积低,Epo-TAgh小鼠在缺氧条件下存活良好。此外,Epo在通气适应和缺氧反应的神经控制、红细胞的变形能力、大脑和心脏血管生成以及神经和心脏保护中发挥关键作用。
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