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从灵长类动物 V1 到 V2 的细胞色素氧化酶纹的四个投射流。

Four projection streams from primate V1 to the cytochrome oxidase stripes of V2.

机构信息

Department of Ophthalmology, University of Utah, Salt Lake City, Utah 84132, USA.

出版信息

J Neurosci. 2009 Dec 9;29(49):15455-71. doi: 10.1523/JNEUROSCI.1648-09.2009.

DOI:10.1523/JNEUROSCI.1648-09.2009
PMID:20007470
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC2909028/
Abstract

In the primate visual system, areas V1 and V2 distribute information they receive from the retina to all higher cortical areas, sorting this information into dorsal and ventral streams. Therefore, knowledge of the organization of projections between V1 and V2 is crucial to understand how the cortex processes visual information. In primates, parallel output pathways from V1 project to distinct V2 stripes. The traditional tripartite division of V1-to-V2 projections was recently replaced by a bipartite scheme, in which thin stripes receive V1 inputs from blob columns, and thick and pale stripes receive common input from interblob columns. Here, we demonstrate that thick and pale stripes, instead, receive spatially segregated V1 inputs and that the interblob is partitioned into two compartments: the middle of the interblob projecting to pale stripes and the blob/interblob border region projecting to thick stripes. Double-labeling experiments further demonstrate that V1 cells project to either thick or pale stripes, but rarely to both. We also find laminar specialization of V1 outputs, with layer 4B contributing projections mainly to thick stripes, and no projections to one set of pale stripes. These laminar differences suggest different contribution of magno, parvo, and konio inputs to each V1 output pathway. These results provide a new foundation for parallel processing models of the visual system by demonstrating four V1-to-V2 pathways: blob columns-to-thin stripes, blob/interblob border columns-to-thick stripes, interblob columns-to-pale(lateral) stripes, layer 2/3-4A interblobs-to-pale(medial) stripes.

摘要

在灵长类动物的视觉系统中,V1 和 V2 区域将它们从视网膜接收到的信息分配到所有更高的皮质区域,将这些信息分为背侧和腹侧流。因此,了解 V1 和 V2 之间的投射组织对于理解大脑如何处理视觉信息至关重要。在灵长类动物中,来自 V1 的平行输出途径投射到不同的 V2 条纹上。V1 到 V2 投射的传统三分法最近被二分法取代,其中薄条纹从斑点柱接收 V1 的输入,而厚条纹和苍白条纹从间质柱接收共同的输入。在这里,我们证明厚条纹和苍白条纹实际上接收空间分离的 V1 输入,并且间质被分为两个隔室:间质的中间部分投射到苍白条纹,而斑点/间质边界区域投射到厚条纹。双标记实验进一步表明,V1 细胞投射到厚条纹或苍白条纹,但很少同时投射到两者。我们还发现 V1 输出的分层专业化,其中 4B 层主要贡献到厚条纹的投射,而对一组苍白条纹没有投射。这些分层差异表明每个 V1 输出途径的大、中、小输入的不同贡献。这些结果通过证明四个 V1 到 V2 途径提供了视觉系统并行处理模型的新基础:斑点柱到薄条纹、斑点/间质边界柱到厚条纹、间质柱到苍白(侧)条纹、2/3-4A 间质到苍白(中)条纹。

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