A field potential analysis study of the effects of prenatal protein malnutrition on maturation of the dentate granule cell response

J. Blaise, J. Bronzino
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Abstract

Unlike the vast majority of cells making up the rat central nervous system, the granule cell population of the hippocampal dentate gyrus develops primarily after birth. Only about 20% of these cells are in place at the time of birth, with the remaining 80% reaching functional maturity by around 30 days of postnatal development. This relatively unique developmental pattern provides an opportunity to assess the impact of insults encountered during the gestational period on the subsequent development and maturation of a brain structure intimately involved in such fundamental processes as spatial navigation, learning, and memory. In addition, the morphology of the hippocampal dentate gyrus, with its laminated arrangement of densely packed cell bodies and specifically oriented apical and basilar projections, provides a structure well-suited to electrophysiological characterization employing field potential analysis. The present study was undertaken to examine the impact of prenatal protein malnutrition on the development of neuronal transmission across the perforant path-dentate granule cell synapse of the hippocampal formation in freely moving rats as they matured from 15 to 30 days of age.<>
产前蛋白质营养不良对齿状颗粒细胞成熟反应影响的场电位分析研究
与构成大鼠中枢神经系统的绝大多数细胞不同,海马齿状回的颗粒细胞群主要在出生后发育。只有大约20%的细胞在出生时就已经存在,剩下的80%在出生后大约30天的发育中达到功能成熟。这种相对独特的发育模式提供了一个机会来评估怀孕期间所遇到的侮辱对随后的发育和成熟的大脑结构的影响,这些结构与空间导航、学习和记忆等基本过程密切相关。此外,海马齿状回的形态,其密集排列的细胞体层状排列和特定定向的顶端和基底突起,提供了一种非常适合使用场电位分析进行电生理表征的结构。本研究旨在研究产前蛋白质营养不良对15 - 30日龄自由活动大鼠海马穿孔通路-齿状颗粒细胞突触神经元传递发育的影响。
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