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姿势和步态的传入与传出控制:儿童的发育变化

Afferent and efferent control of stance and gait: developmental changes in children.

作者信息

Berger W, Quintern J, Dietz V

出版信息

Electroencephalogr Clin Neurophysiol. 1987 Mar;66(3):244-52. doi: 10.1016/0013-4694(87)90073-3.

DOI:10.1016/0013-4694(87)90073-3
PMID:2434308
Abstract

Comparisons were made between the cerebral potentials (CPs) and EMG responses of leg muscles evoked by perturbation impulses during stance and gait in normal children aged from 1 to 10 years. Changes in the efferent arm of the reflex systems during development were reflected in parallel changes with age of the afferent system, expressed in the CP: in the youngest children (1-2 years of age) monosynaptic stretch reflex potentials appeared following perturbations during both stance and gait, together with a reduced level of longer latency EMG responses. The CP, too, had a profile that did not, at this early stage, differ in either condition. In children from 6 to 10 years of age, the adult pattern was reached, with the suppression of monosynaptic stretch reflexes and the early part of the CP during gait perturbation. This is interpreted as an inhibition of group I afferents at both segmental and supraspinal levels, involving suppression of both segmental stretch reflexes and group I signals to supraspinal centres. This control of afferent information had yet to be established in early infancy. The age group from 2 to 6 years showed progressive changes, with an increase in both the level and phasic nature of polysynaptic EMG responses and a corresponding transformation of the latency and shape of the CP. It is suggested that maturation of compensatory EMG responses during gait is achieved by the establishment of descending inhibition of group I afferents and facilitation of polysynaptic spinal reflexes via group II afferents.

摘要

对1至10岁正常儿童在站立和行走过程中,由扰动脉冲诱发的大脑电位(CPs)和腿部肌肉的肌电图反应进行了比较。反射系统传出臂在发育过程中的变化与传入系统随年龄的平行变化相对应,这在CP中有所体现:在最小的儿童(1至2岁)中,在站立和行走过程中受到扰动后会出现单突触牵张反射电位,同时潜伏期较长的肌电图反应水平降低。此时,CP的特征在两种情况下也没有差异。在6至10岁的儿童中,达到了成人模式,在行走扰动期间单突触牵张反射和CP的早期部分受到抑制。这被解释为在节段和脊髓上水平对I类传入神经的抑制,包括对节段性牵张反射和向脊髓上中枢的I类信号的抑制。这种对传入信息的控制在婴儿早期尚未建立。2至6岁年龄组表现出渐进性变化,多突触肌电图反应的水平和相位性质均增加,同时CP的潜伏期和形状相应改变。有人提出,步态期间代偿性肌电图反应的成熟是通过建立对I类传入神经的下行抑制以及通过II类传入神经促进多突触脊髓反射来实现的。

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