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分离培养的耳萝卜螺神经元之间形成电突触需要神经突相互伸长。

Formation of electrical synapses between isolated, cultured Helisoma neurons requires mutual neurite elongation.

作者信息

Hadley R D, Bodnar D A, Kater S B

出版信息

J Neurosci. 1985 Dec;5(12):3145-53. doi: 10.1523/JNEUROSCI.05-12-03145.1985.

DOI:10.1523/JNEUROSCI.05-12-03145.1985
PMID:4078620
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC6565222/
Abstract

Our previous experiments have suggested the hypothesis that conjoint active neuronal outgrowth may be necessary for formation of new electrical synapses between identified neurons of adult Helisoma buccal ganglia. This growth dependence hypothesis now has been tested by examining the responses of individual pairs of neurons in isolation from the influences of the ganglionic environment. Isolated cell culture of identified neurons (neuron 5) showed that: (i) neurons growing in cell culture undergo a predictable sequence of morphological changes culminating in a stable morphological state (i.e., growth stops); (ii) contact between actively growing neurons in cell culture results in the formation of electrical connections, just as in ganglia; and (iii) when an actively growing neuron encounters a neuron that is morphologically stable, electrical connections do not form or are very weak, even though strong connections are made between pairs of actively growing neurons in the same culture. These results establish that processes closely associated with growth are required for formation of electrical synapses between these neurons.

摘要

我们之前的实验提出了一个假说,即联合的活跃神经元生长对于成年琥珀螺口腔神经节中已识别神经元之间新电突触的形成可能是必要的。现在,通过研究分离于神经节环境影响的单个神经元对的反应,对这一生长依赖性假说进行了验证。对已识别神经元(神经元5)进行的分离细胞培养显示:(i)在细胞培养中生长的神经元经历了一系列可预测的形态变化,最终达到稳定的形态状态(即生长停止);(ii)细胞培养中活跃生长的神经元之间的接触会导致电连接的形成,就像在神经节中一样;(iii)当一个活跃生长的神经元遇到一个形态稳定的神经元时,即使在同一培养物中活跃生长的神经元对之间能形成强连接,电连接也不会形成或非常微弱。这些结果表明,这些神经元之间电突触的形成需要与生长密切相关的过程。