FGF23、MEPE 和 PHEX 的拧紧路径。

Peter S N Rowe
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引用次数: 0

摘要

自第一部关于佝偻病(古英语术语 wrickken)的医学专著(Glisson 等人,1651 年)出版以来的 350 年间,我们对矿物质平衡的认识取得了长足的进步。令人振奋的重大发现揭示了 PTH、维生素 D 和降钙素在调节钙和磷酸盐以及维持牙齿和骨骼健康方面的作用。然而,很明显,PTH/维生素 D 轴并不代表全部情况,一种新的骨肾代谢环境已经出现,它牵涉到一系列新型基质蛋白、激素和锌金属肽酶。X连锁性低磷血症佝偻病(HYP)和常染色体显性低磷血症佝偻病(ADHR)的主要缺陷现已分别确定为锌金属内肽酶(PHEX)的失活突变和成纤维细胞生长因子-23(FGF23)的激活突变。在肿瘤性低磷血症骨软化症(OHO)中,几种肿瘤表达蛋白(MEPE、FGF23 和 FRP-4)已成为骨肾病理生理学的候选介质。考虑到遗传性疾病(HYP 和 ADHR)与肿瘤获得性疾病 OHO 之间的显著相似性,人们提出了一个整体模型。在 HYP 中,PHEX 功能的缺失被认为会导致未加工的全长 FGF23 的增加和/或 MEPE 的不适当加工。在 ADHR 中,FGF23 的突变导致对 PHEX 或其他蛋白酶的蛋白水解产生抗性,并增加了全长磷酸盐 FGF23 的半衰期。在 OHO 中,FGF23 和/或 MEPE 的过度表达被认为会导致肾磷酸盐处理和矿化异常。尽管这一模型很有吸引力,但许多问题仍未得到解答,这表明情况更为复杂。下面的综述将提出一个总体假设,试图解释在 HYP、ADHR 和 OHO 以及各种小鼠模型(包括 MEPE 基因缺失突变体、HYP-PHEX 转基因小鼠和 MEPE-PHEX 双基因缺失突变体)中的实验和临床观察结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The wrickkened pathways of FGF23, MEPE and PHEX.

The last 350 years since the publication of the first medical monograph on rickets (old English term wrickken) (Glisson et al., 1651) have seen spectacular advances in our understanding of mineral-homeostasis. Seminal and exciting discoveries have revealed the roles of PTH, vitamin D, and calcitonin in regulating calcium and phosphate, and maintaining healthy teeth and skeleton. However, it is clear that the PTH/Vitamin D axis does not account for the entire picture, and a new bone-renal metabolic milieu has emerged, implicating a novel set of matrix proteins, hormones, and Zn-metallopeptidases. The primary defects in X-linked hypophosphatemic rickets (HYP) and autosomal-dominant hypophosphatemic rickets (ADHR) are now identified as inactivating mutations in a Zn-metalloendopeptidase (PHEX) and activating mutations in fibroblast-growth-factor-23 (FGF23), respectively. In oncogenic hypophosphatemic osteomalacia (OHO), several tumor-expressed proteins (MEPE, FGF23, and FRP-4) have emerged as candidate mediators of the bone-renal pathophysiology. This has stimulated the proposal of a global model that takes into account the remarkable similarities between the inherited diseases (HYP and ADHR) and the tumor-acquired disease OHO. In HYP, loss of PHEX function is proposed to result in an increase in uncleaved full-length FGF23 and/or inappropriate processing of MEPE. In ADHR, a mutation in FGF23 results in resistance to proteolysis by PHEX or other proteases and an increase in half-life of full-length phosphaturic FGF23. In OHO, over-expression of FGF23 and/or MEPE is proposed to result in abnormal renal-phosphate handling and mineralization. Although this model is attractive, many questions remain unanswered, suggesting a more complex picture. The following review will present a global hypothesis that attempts to explain the experimental and clinical observations in HYP, ADHR, and OHO, plus diverse mouse models that include the MEPE null mutant, HYP-PHEX transgenic mouse, and MEPE-PHEX double-null-mutant.

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