兔视网膜中已识别的双极细胞和羊膜细胞对稀疏分支神经节细胞的突触输入。

IF 1.1 4区 医学 Q4 NEUROSCIENCES Visual Neuroscience Pub Date : 2019-01-01 DOI:10.1017/S0952523819000014
Andrea S Bordt, Diego Perez, Luke Tseng, Weiley Sunny Liu, Jay Neitz, Sara S Patterson, Edward V Famiglietti, David W Marshak
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摘要

哺乳动物视网膜神经节细胞有 30 多种不同类型,每种类型对视觉环境的不同特征都很敏感。在兔子视网膜中,根据其形态和在内丛状层(IPL)树突的分层,可将它们分为四类。本研究的目的是描述一种第四类神经节细胞的突触输入,即第三种稀疏分支第四类细胞(SB3)。在利用自动透射电子显微镜(ATEM)开发的视网膜连接组中,部分重建了这种类型的一个细胞。该细胞的树突细长、相对平直,在 IPL 的近视层 a 分支。在 IPL 中,SB3 细胞的树突总是突触后的,这支持了它作为神经节细胞的身份。它有 29% 的输入来自双极细胞,这一数值处于之前研究的兔视网膜神经节细胞的中间范围。SB3 细胞的每个双极细胞通常只接受来自多种类型的假定离体双极细胞的一个突触;在二联突触处,来自肾上腺素细胞的互惠突触并不常见。在少数情况下,SB3 神经节细胞突触前的双极细胞也向神经节细胞突触前的杏仁核细胞提供输入。窄场ON肾上腺素细胞显然没有交叉抑制作用。大多数杏仁核细胞的输入来自 GABA 能杏仁核细胞的轴突和树突,很可能提供了来自经典感受野之外的抑制性输入。
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Synaptic inputs from identified bipolar and amacrine cells to a sparsely branched ganglion cell in rabbit retina.

There are more than 30 distinct types of mammalian retinal ganglion cells, each sensitive to different features of the visual environment. In rabbit retina, they can be grouped into four classes according to their morphology and stratification of their dendrites in the inner plexiform layer (IPL). The goal of this study was to describe the synaptic inputs to one type of Class IV ganglion cell, the third member of the sparsely branched Class IV cells (SB3). One cell of this type was partially reconstructed in a retinal connectome developed using automated transmission electron microscopy (ATEM). It had slender, relatively straight dendrites that ramify in the sublamina a of the IPL. The dendrites of the SB3 cell were always postsynaptic in the IPL, supporting its identity as a ganglion cell. It received 29% of its input from bipolar cells, a value in the middle of the range for rabbit retinal ganglion cells studied previously. The SB3 cell typically received only one synapse per bipolar cell from multiple types of presumed OFF bipolar cells; reciprocal synapses from amacrine cells at the dyad synapses were infrequent. In a few instances, the bipolar cells presynaptic to the SB3 ganglion cell also provided input to an amacrine cell presynaptic to the ganglion cell. There was apparently no crossover inhibition from narrow-field ON amacrine cells. Most of the amacrine cell inputs were from axons and dendrites of GABAergic amacrine cells, likely providing inhibitory input from outside the classical receptive field.

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来源期刊
Visual Neuroscience
Visual Neuroscience 医学-神经科学
CiteScore
2.20
自引率
5.30%
发文量
8
审稿时长
>12 weeks
期刊介绍: Visual Neuroscience is an international journal devoted to the publication of experimental and theoretical research on biological mechanisms of vision. A major goal of publication is to bring together in one journal a broad range of studies that reflect the diversity and originality of all aspects of neuroscience research relating to the visual system. Contributions may address molecular, cellular or systems-level processes in either vertebrate or invertebrate species. The journal publishes work based on a wide range of technical approaches, including molecular genetics, anatomy, physiology, psychophysics and imaging, and utilizing comparative, developmental, theoretical or computational approaches to understand the biology of vision and visuo-motor control. The journal also publishes research seeking to understand disorders of the visual system and strategies for restoring vision. Studies based exclusively on clinical, psychophysiological or behavioral data are welcomed, provided that they address questions concerning neural mechanisms of vision or provide insight into visual dysfunction.
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