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兔眼视网膜无光照内丛状层中锥形双极细胞轴突突触。

ON cone bipolar cell axonal synapses in the OFF inner plexiform layer of the rabbit retina.

机构信息

Department of Ophthalmology and Visual Sciences, Moran Eye Center, University of Utah, Salt Lake City, Utah 84132, USA.

出版信息

J Comp Neurol. 2013 Apr 1;521(5):977-1000. doi: 10.1002/cne.23244.

DOI:10.1002/cne.23244
PMID:23042441
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3560306/
Abstract

Analysis of the rabbit retinal connectome RC1 reveals that the division between the ON and the OFF inner plexiform layer (IPL) is not structurally absolute. ON cone bipolar cells make noncanonical axonal synapses onto specific targets and receive amacrine cell synapses in the nominal OFF layer, creating novel motifs, including inhibitory crossover networks. Automated transmission electron microscopic imaging, molecular tagging, tracing, and rendering of ~400 bipolar cells reveals axonal ribbons in 36% of ON cone bipolar cells, throughout the OFF IPL. The targets include γ-aminobutyrate (GABA)-positive amacrine cells (γACs), glycine-positive amacrine cells (GACs), and ganglion cells. Most ON cone bipolar cell axonal contacts target GACs driven by OFF cone bipolar cells, forming new architectures for generating ON-OFF amacrine cells. Many of these ON-OFF GACs target ON cone bipolar cell axons, ON γACs, and/or ON-OFF ganglion cells, representing widespread mechanisms for OFF to ON crossover inhibition. Other targets include OFF γACs presynaptic to OFF bipolar cells, forming γAC-mediated crossover motifs. ON cone bipolar cell axonal ribbons drive bistratified ON-OFF ganglion cells in the OFF layer and provide ON drive to polarity-appropriate targets such as bistratified diving ganglion cells (bsdGCs). The targeting precision of ON cone bipolar cell axonal synapses shows that this drive incidence is necessarily a joint distribution of cone bipolar cell axonal frequency and target cell trajectories through a given volume of the OFF layer. Such joint distribution sampling is likely common when targets are sparser than sources and when sources are coupled, as are ON cone bipolar cells.

摘要

对 RC1 兔视网膜连接组的分析表明,ON 和 OFF 内丛状层(IPL)之间的划分在结构上并不是绝对的。ON 视锥双极细胞与特定靶标形成非典型的轴突突触,并在名义上的 OFF 层接受无长突细胞的突触,从而产生新的基元,包括抑制性交叉网络。对~400 个双极细胞的自动透射电子显微镜成像、分子标记、追踪和渲染显示,在整个 OFF IPL 中,36%的 ON 视锥双极细胞存在轴突带。这些靶标包括γ-氨基丁酸(GABA)阳性无长突细胞(γAC)、甘氨酸阳性无长突细胞(GAC)和神经节细胞。大多数 ON 视锥双极细胞轴突接触的靶标是由 OFF 视锥双极细胞驱动的 GAC,形成了产生 ON-OFF 无长突细胞的新结构。这些 ON-OFF GAC 中的许多靶标是 ON 视锥双极细胞轴突、ON γAC 和/或 ON-OFF 神经节细胞,代表了广泛的 OFF 到 ON 交叉抑制机制。其他靶标包括位于 OFF 双极细胞前的 OFF γAC,形成γAC 介导的交叉基元。ON 视锥双极细胞轴突带驱动 OFF 层中的双分层 ON-OFF 神经节细胞,并为极性合适的靶标提供 ON 驱动,如双分层潜水神经节细胞(bsdGC)。ON 视锥双极细胞轴突突触的靶向精度表明,这种驱动发生率必然是视锥双极细胞轴突频率与目标细胞轨迹在 OFF 层中通过给定体积的联合分布。当目标比源稀疏且源耦合时,例如 ON 视锥双极细胞,这种联合分布采样可能很常见。

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