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工蜂复眼中视网膜动作电位的性质以及紫外线和绿色受体系统的光谱敏感性。

The nature of the retinal action potential, and the spectral sensitivities of ultraviolet and green receptor systems of the compound eye of the worker honey-bee.

作者信息

GOLDSMITH T H

出版信息

J Gen Physiol. 1960 Mar;43(4):775-99. doi: 10.1085/jgp.43.4.775.

DOI:10.1085/jgp.43.4.775
PMID:13850754
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC2195024/
Abstract
  1. The retinal action potential consists principally of a sustained negative wave which persists for as long as the stimulus. Transitory negative on-effects and off-effects may also be present, particularly at long wave lengths (green, yellow, and red) and in the light-adapted eye. 2. Only the maintained component of the potential can be elicited under CO(2) anesthesia. The transient components are reversibly eliminated from the response at about the same time as the background noise of nerve and muscle spikes. It is suggested that the sustained component arises from the receptor cells, and the other components from second and higher order neurons. 3. The compound eye does not contain a homogeneous population of receptors. A green receptor system (maximum sensitivity at about 535 mmicro) determines the response of the dark-adapted eye throughout most of the spectrum; during adaptation to yellow light, however, an ultraviolet receptor system is revealed, with maximum sensitivity at about 345 mmicro. The anatomical bases of these receptor systems are unknown; however, they include both retinula cells and neurons in the optic ganglion. 4. There is no change in spectral sensitivity (Purkinje shift) in the first three logarithmic units above the threshold of the retinal action potential. 5. The relatively great effectiveness of near ultraviolet light in stimulating the positive phototaxis of the bee does not depend on excitation of the ultraviolet receptor of the ocellus.
摘要
  1. 视网膜动作电位主要由一个持续的负波组成,该负波会持续到刺激结束。短暂的负向开效应和关效应也可能出现,特别是在长波长(绿色、黄色和红色)以及适应光的眼睛中。2. 在二氧化碳麻醉下,只能引出电位的持续成分。瞬态成分在与神经和肌肉尖峰的背景噪声大致相同的时间从反应中可逆地消除。有人认为持续成分来自受体细胞,而其他成分来自二级及更高阶神经元。3. 复眼中不包含同质的受体群体。一个绿色受体系统(在约535微米处具有最大敏感性)在大部分光谱范围内决定了暗适应眼睛的反应;然而,在适应黄光的过程中,会揭示出一个紫外线受体系统,其最大敏感性在约345微米处。这些受体系统的解剖学基础尚不清楚;然而,它们包括视小网膜细胞和视神经节中的神经元。4. 在高于视网膜动作电位阈值的前三个对数单位内,光谱敏感性没有变化(浦肯野位移)。5. 近紫外光在刺激蜜蜂正向趋光性方面相对较高的有效性并不取决于单眼紫外线受体的激发。

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本文引用的文献

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THE VISUAL SYSTEM OF THE HONEYBEE.蜜蜂的视觉系统。
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The spectral sensitivities of the dorsal ocelli of cockroaches and honeybees; an electrophysiological study.蟑螂和蜜蜂复眼背单眼的光谱敏感性;一项电生理学研究。
J Gen Physiol. 1958 Jul 20;41(6):1171-85. doi: 10.1085/jgp.41.6.1171.
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