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哺乳动物心脏围产期发育过程中肌酸激酶的区室化

Compartmentation of creatine kinases during perinatal development of mammalian heart.

作者信息

Hoerter J A, Ventura-Clapier R, Kuznetsov A

机构信息

CJF INSERM 92-11, Université Paris-Sud, Faculté de Pharmacie, Chatenay Malabry, France.

出版信息

Mol Cell Biochem. 1994 Apr-May;133-134:277-86. doi: 10.1007/BF01267960.

DOI:10.1007/BF01267960
PMID:7808459
Abstract

Maturation of the cardiac cell is characterized by increasing diversity of isozymic expression of creatine kinases. Expression of the M-CK isozyme always precedes that of mitochondrial isozyme (mi-CK), however the expression of an isoform does not inform about its localization or cellular function. The functional role of isozymes binding to sites of energy utilization and production characteristic of the adult myocardium can be evidenced by the functional coupling of M-CK to myofibrillar ATPase and mito-CK to translocase in Triton X-100 and saponin skinned fibers. Functional activity of M-CK and mito-CK were investigated during perinatal development. Both functional activities appear during late fetal life in species mature at birth like guinea pig, and in the first postnatal weeks in immature species like rat or rabbit. Thus, the functional activity of bound CK isozymes is not associated with birth per se but with the general process of cell maturation. Localization of CK in the cytosol appears optimal for the transfer of glycolytic production of ATP to sites of utilization in an immature heart. During cell maturation, the increasing contribution of oxidative phosphorylation to ATP production, the apparition and binding of mi-CK to mitochondria, the binding of M-CK to myofibrils, turn the cell in a compartmentalized system of energy production. This provides the cellular basis for energy transfer by the PCr-Cr-CK system between sites of ATP production and utilization. Compartmentation of both Ca handling and energy turnover leads to a highly structured cell organization and could be essential for the efficiency of heart function.

摘要

心肌细胞的成熟以肌酸激酶同工酶表达的多样性增加为特征。M-CK同工酶的表达总是先于线粒体同工酶(mi-CK),然而同工酶的表达并不能说明其定位或细胞功能。在成年心肌能量利用和产生部位结合的同工酶的功能作用,可以通过在Triton X-100和皂角苷透皮纤维中M-CK与肌原纤维ATP酶以及mito-CK与转位酶的功能偶联来证明。在围产期发育过程中研究了M-CK和mito-CK的功能活性。在出生时成熟的物种如豚鼠中,两种功能活性在胎儿后期出现,而在未成熟物种如大鼠或兔子中,则在出生后的头几周出现。因此,结合的CK同工酶的功能活性与出生本身无关,而是与细胞成熟的一般过程有关。在未成熟心脏中,CK在细胞质中的定位似乎最适合将糖酵解产生的ATP转移到利用部位。在细胞成熟过程中,氧化磷酸化对ATP产生的贡献增加,mi-CK出现并与线粒体结合,M-CK与肌原纤维结合,使细胞变成一个能量产生的分隔系统。这为通过PCr-Cr-CK系统在ATP产生和利用部位之间进行能量转移提供了细胞基础。钙处理和能量转换的分隔导致高度结构化的细胞组织,这可能对心脏功能的效率至关重要。

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