第十七章。维生素E缺乏和不足;使用斑马鱼,脂质组学和代谢组学的见解

M. Traber
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引用次数: 2

摘要

维生素E (α-生育酚,VitE)缺乏已被确认约100年导致神经发育障碍和胎儿死亡。因此,VitE在防止神经发生失调的生化和生理网络中起着至关重要的作用。本文所描述的主要概念包括:(1)VitE与谷胱甘肽的抗氧化功能,以防止过氧化损伤;(2)认识到高度过氧化性脂质是神经系统发育所必需的;(3)磷脂酰胆碱调节、胆碱/甲基化循环和叶酸循环之间的相互关系。来自VitE缺乏(E−)斑马鱼的发现表明,氧化和代谢损伤以及行为和形态异常是由VitE状态不足引起的。在形态异常发生之前,E−胚胎会经历胆碱状态、甲基化模式和能量产生的失调,并伴有葡萄糖消耗。鉴于健康胎儿的重要性,缺乏对VitE在胚胎发生调节中的作用的理解代表了对这一关键营养物质的严重缺乏。值得注意的是,大多数女性维生素e和胆碱的摄入量都不足,这表明其中一种的不足可能会加剧另一种的不足。重要的是,VitE不足会导致继发性缺陷,导致发育缺陷,特别是神经管缺陷。具体地说,VitE,氧化损伤和代谢控制系统参与神经发生的关系进行了描述。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
CHAPTER 17. Vitamin E Deficiency and Inadequacy; Insights Using Zebrafish, Lipidomics and Metabolomics
Vitamin E (α-tocopherol, VitE) deficiency has been recognized for about 100 years to cause neurologic developmental failures and fetal death. Thus, VitE is a critical player in the biochemical and physiological networks that prevent the dysregulation of neurogenesis. The major concepts that are described herein include: (1) the antioxidant function of VitE along with glutathione to protect against peroxidative damage, (2) the recognition that highly peroxidizable lipids are necessary for nervous system development and (3) the interrelationships between phosphatidyl choline regulation, the choline/methylation cycle and the folate cycle. The discoveries from VitE deficient (E−) zebrafish show that oxidative and metabolic damage, along with behavioral and morphological abnormalities, are caused by inadequate VitE status. Prior to the onset of morphological abnormalities, E− embryos experience dysregulation of choline status, methylation patterns and energy generation with glucose depletion. Given the importance of healthy fetuses, the lack of understanding of VitE's role in regulation of embryogenesis represents a critical lack of knowledge about this key nutrient. Remarkably, most women have inadequate intakes of both VitE and choline, suggesting that inadequacy of one might potentiate the inadequacy of the other. Importantly, VitE inadequacy drives secondary deficiencies that cause developmental defects, especially neural tube defects. Specifically, the relationship of VitE, oxidative damage and metabolic control systems involved in neurogenesis are described.
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