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新生大鼠体感皮层桶状区表征的早期发育遵循从外侧到内侧的梯度:一项电生理研究。

Early development of the SI cortical barrel field representation in neonatal rats follows a lateral-to-medial gradient: an electrophysiological study.

作者信息

McCandlish C A, Li C X, Waters R S

机构信息

Department of Anatomy and Neurobiology, University of Tennessee, Memphis 38163.

出版信息

Exp Brain Res. 1993;92(3):369-74. doi: 10.1007/BF00229024.

DOI:10.1007/BF00229024
PMID:8454002
Abstract

Development of the barrel field in layer IV of SI cortex of neonatal rats was studied in vivo using electrophysiological recording techniques. This study was designed to determine (a) the earliest time SI cortex is responsive to peripheral mechanical and/or electrical stimulation and (b) whether the development of the SI cortical barrel field map of the body surface follows a differential pattern of development similar to the pattern previously demonstrated using peanut agglutinin (PNA) binding (McCandlish et al. 1989). Carbon fiber microelectrodes were used to record evoked responses from within the depth of the cortex in neonatal rats between postnatal day 1. (PND-1), defined as the day of birth, and PND-14. Evoked responses were first recorded approximately 12 h after birth. These responses in the youngest animals were of low amplitude, monophasic waveshape, and long latency, with long interstimulus intervals necessary to drive the cortex. Increases in amplitude and complexity of waveshape and decreases in latency were observed over subsequent postnatal days. The earliest responses recorded on middle PND-1 were evoked by stimulation of the face and/or mystacial vibrissae. The next responses were evoked approximately 24 h after birth (late PND-1) by stimulation of the forelimb. The last responses were evoked approximately 36 h after birth (middle PND-2), by stimulation of the hindlimb. The physiological map of the representation of the body surface follows a developmental gradient similar to the gradient observed using PNA histochemistry; however, the lectin-generated morphological map lagged approximately 48 h behind the physiological map.(ABSTRACT TRUNCATED AT 250 WORDS)

摘要

利用电生理记录技术在体内研究新生大鼠体感皮层(SI)IV层桶状区的发育。本研究旨在确定:(a)体感皮层对周围机械和/或电刺激产生反应的最早时间;(b)体感皮层体表桶状区图谱的发育是否遵循与先前使用花生凝集素(PNA)结合所证明的模式类似的差异发育模式(McCandlish等人,1989年)。使用碳纤维微电极记录出生后第1天(定义为出生日,即PND-1)至PND-14的新生大鼠皮层深度内的诱发反应。出生后约12小时首次记录到诱发反应。最年幼动物的这些反应幅度低、呈单相波形且潜伏期长,需要很长的刺激间隔时间才能驱动皮层。在出生后的后续几天中,观察到反应幅度增加、波形复杂度增加以及潜伏期缩短。在PND-1中期记录到的最早反应是由面部和/或触须刺激诱发的。接下来的反应在出生后约24小时(PND-1晚期)由前肢刺激诱发。最后的反应在出生后约36小时(PND-2中期)由后肢刺激诱发。体表表征的生理图谱遵循与使用PNA组织化学观察到的梯度相似的发育梯度;然而,凝集素生成的形态图谱比生理图谱落后约48小时。(摘要截选至250字)

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