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脑损伤后的脑代谢适应与酮代谢

Cerebral metabolic adaptation and ketone metabolism after brain injury.

作者信息

Prins Mayumi L

机构信息

1UCLA Division of Neurosurgery, Los Angeles, California 90095, USA.

出版信息

J Cereb Blood Flow Metab. 2008 Jan;28(1):1-16. doi: 10.1038/sj.jcbfm.9600543. Epub 2007 Aug 8.

Abstract

The developing central nervous system has the capacity to metabolize ketone bodies. It was once accepted that on weaning, the 'post-weaned/adult' brain was limited solely to glucose metabolism. However, increasing evidence from conditions of inadequate glucose availability or increased energy demands has shown that the adult brain is not static in its fuel options. The objective of this review is to summarize the body of literature specifically regarding cerebral ketone metabolism at different ages, under conditions of starvation and after various pathologic conditions. The evidence presented supports the following findings: (1) there is an inverse relationship between age and the brain's capacity for ketone metabolism that continues well after weaning; (2) neuroprotective potentials of ketone administration have been shown for neurodegenerative conditions, epilepsy, hypoxia/ischemia, and traumatic brain injury; and (3) there is an age-related therapeutic potential for ketone as an alternative substrate. The concept of cerebral metabolic adaptation under various physiologic and pathologic conditions is not new, but it has taken the contribution of numerous studies over many years to break the previously accepted dogma of cerebral metabolism. Our emerging understanding of cerebral metabolism is far more complex than could have been imagined. It is clear that in addition to glucose, other substrates must be considered along with fuel interactions, metabolic challenges, and cerebral maturation.

摘要

发育中的中枢神经系统具有代谢酮体的能力。曾经人们认为,断奶后,“断奶后/成年”大脑仅局限于葡萄糖代谢。然而,越来越多来自葡萄糖供应不足或能量需求增加情况的证据表明,成人大脑在燃料选择方面并非一成不变。本综述的目的是总结专门关于不同年龄、饥饿状态下以及各种病理状况后大脑酮代谢的文献。所呈现的证据支持以下发现:(1)年龄与大脑酮代谢能力之间存在反比关系,这种关系在断奶后仍持续很久;(2)已表明给予酮体对神经退行性疾病、癫痫、缺氧/缺血和创伤性脑损伤具有神经保护潜力;(3)酮体作为替代底物具有与年龄相关的治疗潜力。在各种生理和病理状况下大脑代谢适应的概念并不新鲜,但经过多年众多研究的贡献才打破了先前被接受的大脑代谢教条。我们对大脑代谢新出现的理解远比想象的要复杂得多。很明显,除了葡萄糖之外,还必须考虑其他底物以及燃料相互作用、代谢挑战和大脑成熟情况。

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