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脑组织的容量调节——一项综述。

Volume regulation of the brain tissue--a survey.

作者信息

Dóczi T

机构信息

Department of Neurosurgery, Medical University of Pécs, Hungary.

出版信息

Acta Neurochir (Wien). 1993;121(1-2):1-8. doi: 10.1007/BF01405174.

DOI:10.1007/BF01405174
PMID:8475800
Abstract

Though the brain bulk has been considered to be constant in several pressure homeostasis studies, the central nervous tissue may be responsible for the accommodation of extracerebral masses exceeding the volume regulation capacity of the cerebral blood and cerebrospinal fluid. Volume buffering of the nervous tissue may even be functioning in parallel, in conjunction with the "fluid" compartments. Of the existing volume regulatory models, the following are discussed: osmotic feedback (buffering) preventing major fluid shifts in osmotic or pressure disequilibrium at the blood brain barrier (BBB), and the 4-compartment model, which under steady-state conditions can be regarded as an analogue of systemic tissue volume regulation, i.e. secretion of fluid at the BBB, bulk flow of interstitial space fluid (ISF) in the brain and absorption via the cerebrospinal fluid (CSF). The most recent data are presented, confirming that accommodation of space occupation by the nervous tissue is achieved via shrinkage of the extracerebral fluid (ECF), while the cell volume remains relatively constant. These findings confirm Hakim's classical hypothesis, based on biomechanical considerations, that the brain behaves like a sponge. The data presented in this survey point to a more general hypothesis: the brain interstitial space can vary in volume according to physiological and pathological stress, within certain bounds this being a reversible process which does not affect brain function. The potential role of the central neuro-endocrine system in brain volume regulation is discussed. Vasopressin (AVP) and atriopeptin (ANP) probably, function within the brain via a paracrine mechanism, as physiological regulators of brain cell and ISF volume.(ABSTRACT TRUNCATED AT 250 WORDS)

摘要

尽管在多项压力稳态研究中,脑容量被认为是恒定的,但中枢神经组织可能负责容纳超过脑血和脑脊液容量调节能力的脑外肿块。神经组织的容量缓冲甚至可能与“液体”隔室并行发挥作用。在现有的容量调节模型中,讨论了以下几种:渗透反馈(缓冲)可防止血脑屏障(BBB)处渗透压或压力失衡时的主要液体转移,以及四隔室模型,在稳态条件下,该模型可被视为全身组织容量调节的类似物,即BBB处的液体分泌、脑间质液(ISF)的大量流动以及通过脑脊液(CSF)的吸收。本文展示了最新数据,证实神经组织通过脑外液(ECF)的收缩来实现对占位空间的容纳,而细胞体积保持相对恒定。这些发现证实了基于生物力学考虑的哈基姆经典假说,即大脑的行为类似于海绵。本次综述中呈现的数据指向一个更普遍的假说:脑间质空间的体积可根据生理和病理应激在一定范围内变化,且这是一个不影响脑功能的可逆过程。文中还讨论了中枢神经内分泌系统在脑容量调节中的潜在作用。血管加压素(AVP)和心房肽(ANP)可能通过旁分泌机制在脑内发挥作用,作为脑细胞和ISF体积的生理调节因子。(摘要截取自250词)

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