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2
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C-PR neuron of Aplysia has differential effects on "Feeding" cerebral interneurons, including myomodulin-positive CBI-12.海兔的C-PR神经元对“进食”脑内神经元有不同影响,包括肌调节蛋白阳性的CBI-12。
J Neurophysiol. 1999 Feb;81(2):521-34. doi: 10.1152/jn.1999.81.2.521.

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An input-representing interneuron regulates spike timing and thereby phase switching in a motor network.一个输入表征中间神经元调节动作电位时间,从而调节运动网络中的相位转换。
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通过膜特性和突触相互作用,在海兔进食回路中间神经元中实现信息处理的区室化。

Compartmentalization of information processing in an aplysia feeding circuit interneuron through membrane properties and synaptic interactions.

作者信息

Perrins R, Weiss K R

机构信息

Department of Physiology and Biophysics, Mount Sinai School of Medicine, Mount Sinai Medical Center, New York, New York 10029-6574, USA.

出版信息

J Neurosci. 1998 May 15;18(10):3977-89. doi: 10.1523/JNEUROSCI.18-10-03977.1998.

DOI:10.1523/JNEUROSCI.18-10-03977.1998
PMID:9570824
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC6793158/
Abstract

We describe a pair of cerebral-to-buccal interneurons, CBI-5/6, which have outputs and inputs in two ganglia. The soma in the cerebral ganglion received synaptic inputs during buccal motor programs (BMPs) and after mechanical stimulation of the lips. During BMPs the soma received antidromic spikes generated in processes in the buccal ganglion. The soma was driven into a plateau potential by each of these inputs, during which it fired orthodromically at 0-5 Hz. The soma had outputs in the cerebral ganglion consisting of electrical coupling to the adjacent CBI-5/6 and to a cerebral-to-pedal neuron (CPN1). The buccal terminals of CBI-5/6 received inputs that generated rhythmic barrages (up to 25 Hz) of antidromic spikes during BMPs. The buccal terminals had chemical and electrical outputs to motor and premotor elements of feeding circuitry. This combination of synaptic interactions and endogenous properties mean that CBI-5/6 can process information in a number of ways. During the barrage of antidromic spikes, high-frequency firing will produce strong inputs to buccal followers and on their arrival at the soma will transfer excitation electrotonically to CPN1. Subthreshold input to the soma will be transferred electrotonically to cerebral followers but will not be relayed to postsynaptic buccal neurons. Plateau potentials after the antidromic spikes or local cerebral inputs will locally excite CPN1 via electrical coupling but will have little influence on buccal events because of the low orthodromic firing rate. Thus, CBI-5/6 may transmit information locally within the cerebral ganglion or more extensively in both buccal and cerebral ganglia simultaneously.

摘要

我们描述了一对脑-颊中间神经元,即CBI-5/6,它们在两个神经节中都有输出和输入。脑神经节中的胞体在颊部运动程序(BMPs)期间以及唇部受到机械刺激后会接收突触输入。在BMPs期间,胞体接收到在颊神经节的突起中产生的逆向动作电位。这些输入中的每一个都能将胞体驱动到平台电位,在此期间它以0-5赫兹的频率顺向发放动作电位。胞体在脑神经节中有输出,包括与相邻的CBI-5/6以及一个脑-足神经元(CPN1)进行电耦合。CBI-5/6的颊部终末在BMPs期间接收能产生节律性逆向动作电位串(高达25赫兹)的输入。颊部终末对进食回路的运动和运动前神经元具有化学和电输出。这种突触相互作用和内在特性的组合意味着CBI-5/6能够以多种方式处理信息。在逆向动作电位串期间,高频发放将向颊部跟随神经元产生强烈输入,并且当它们到达胞体时将通过电紧张方式将兴奋传递给CPN1。对胞体的阈下输入将通过电紧张方式传递给脑跟随神经元,但不会中继到突触后颊部神经元。逆向动作电位或局部脑输入后的平台电位将通过电耦合在局部兴奋CPN1,但由于顺向发放频率较低,对颊部事件影响很小。因此,CBI-5/6可能在脑神经节内进行局部信息传递,或者同时在颊神经节和脑神经节中进行更广泛的信息传递。