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美洲龙虾(Panulirus argus)口胃神经节中的运动模式。

Motor patterns in the stomatogastric ganglion of the lobster Panulirus argus.

作者信息

Hartline D K, Maynard D M

出版信息

J Exp Biol. 1975 Apr;62(2):405-20. doi: 10.1242/jeb.62.2.405.

DOI:10.1242/jeb.62.2.405
PMID:173787
Abstract
  1. Acitivity patterns arising from the thirty cells of the stomatogastric ganglion of Panulirus argus are described for both a semi-intact preparation and an isolated one. 2. The thirty or so cells can be divided so far into two functional groupings: the gastric mill group, with at least ten motor elements, and the pyloric group with at least fourteen. There is some, but not extensive, interaction between groups. 3. The main gastric mill activity is arranged in two sets of elements, each of which is composed of reciprocating elements innervating antagonistic muscles. Thus alternation in activity between the single LC and the two LG neurones results in alternate closing and opening of the lateral teeth; alternation between the four GM and single CP units results in alternate protraction and retraction of the medial tooth. 4. The two sets are phased to each other in such a way that they cause gastric mill teeth to operate effectively to masticate food. 5. The main pyloric activity is arranged in a three-part cycle with each of three sets of units active in sequence. Activity in two PD and one AB unit is followed by bursts in IC and LP units followed in turn by activity in up to seven PY units. Activity in a single VD neurone is locked to this cycle in a more complex pattern.
摘要
  1. 描述了来自美洲龙虾口胃神经节的30个细胞在半完整制剂和分离制剂中的活动模式。2. 这30个左右的细胞目前可分为两个功能组:胃磨组,至少有10个运动元件;幽门组,至少有14个。两组之间存在一些但不广泛的相互作用。3. 主要的胃磨活动由两组元件组成,每组由支配拮抗肌的往复元件组成。因此,单个LC和两个LG神经元之间的活动交替导致侧齿的交替闭合和张开;四个GM和单个CP单元之间的交替导致中齿的交替前伸和后缩。4. 这两组相互相位配合,以使胃磨齿有效地咀嚼食物。5. 主要的幽门活动以三个部分的周期进行安排,三组单元依次活跃。两个PD和一个AB单元的活动之后是IC和LP单元的爆发,接着依次是多达七个PY单元的活动。单个VD神经元的活动以更复杂的模式锁定在这个周期中。

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