Multiple motor patterns in the stomatogastric ganglion of the shrimp Penaeus japonicus.

K Tazaki, Y Tazaki
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引用次数: 8

Abstract

Motor patterns of the cardiac sac, the gastric and the pyloric network in the stomatogastric nervous system of the shrimp Penaeus japonicus, the most primitive decapod species, were studied. Single neurons can switch from the gastric or the pyloric pattern to the cardiac sac pattern. Some of the pyloric neurons fire with the gastric pattern. All of the gastric neurons fire with the pyloric pattern, unlike those in reptantians. Proctolin activates and modulates the cardiac sac and the pyloric rhythm, and promotes reconfiguration of the networks. Neurons of the three networks have so many interconnections that they construct a multifunctional neural network like those in Cancer. This network may function in different configurations under the appropriate conditions. Several modes of interactions between the networks found in different reptantian species can apply to the penaeidean shrimp. Such interactions are general features of the stomatogastric nervous system in decapods. Phylogenetic differences among the decapod infraorders are seen in the number and orientation of muscles and the innervation pattern of muscles. The multifunctional networks have existed in the most primitive decapod species, and types of configurations of the networks would have evolved to produce a wide range of motor patterns as the foregut structure has become complex.

日本对虾口胃神经节的多种运动模式。
研究了最原始的十足类对虾(Penaeus japonicus)口胃神经系统中心囊、胃和幽门网的运动模式。单个神经元可以从胃或幽门模式切换到心囊模式。一些幽门神经元以胃模式放电。与爬行动物不同,所有的胃神经元都以幽门模式放电。Proctolin激活和调节心囊和幽门节律,并促进网络的重新配置。这三个网络的神经元有如此多的相互连接,它们构建了一个多功能的神经网络,就像癌症中的神经网络一样。该网络可以在适当的条件下以不同的配置运行。在不同爬行动物物种中发现的网络之间的几种相互作用模式可以适用于对虾。这种相互作用是十足类动物口胃神经系统的一般特征。十足动物的系统发育差异体现在肌肉的数量和方向以及肌肉的神经支配模式上。多功能网络存在于最原始的十足动物物种中,并且随着前肠结构变得复杂,网络的配置类型可能已经进化到产生广泛的运动模式。
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