2006
DOI: 10.1016/s0079-6123(06)54002-6
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Double-bouquet cells in the monkey and human cerebral cortex with special reference to areas 17 and 18

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Cited by 51 publications
(51 citation statements)
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“…The axon of L2/3 Vip INs is also directed vertically, in a narrow columnar fashion, where their axonal projections often reach L4 and L5/6, in addition to their local axonal arbor (Bayraktar et al, 2000; Porter et al, 1998; Pronneke et al, 2015). These axonal features are reminiscent of what has been described as “horsetail” and double bouquet cells in primates (DeFelipe et al, 2006). Therefore, the direct influence of L2/3 bipolar Vip INs is likely to be vertically broad and laterally restricted.…”
Section: Interneuron Diversity In the Neocortexmentioning
confidence: 60%
“…The axon of L2/3 Vip INs is also directed vertically, in a narrow columnar fashion, where their axonal projections often reach L4 and L5/6, in addition to their local axonal arbor (Bayraktar et al, 2000; Porter et al, 1998; Pronneke et al, 2015). These axonal features are reminiscent of what has been described as “horsetail” and double bouquet cells in primates (DeFelipe et al, 2006). Therefore, the direct influence of L2/3 bipolar Vip INs is likely to be vertically broad and laterally restricted.…”
Section: Interneuron Diversity In the Neocortexmentioning
confidence: 60%
“…In the adult primate neocortex, VIP + /CR + GABAergic neurons often exhibit a "horse-tail" morphology (a term that encompasses bitufted, bipolar, and double-bouquet cells) (DeFelipe et al 2013). These cells are characterized by long, vertically oriented axon collaterals that can form hundreds of inhibitory synapses with dendrites of pyramidal cells from several cortical layers (Cajal 1899;DeFelipe et al 2006). This unique morphology is not evident in rodents but is thought to play a critical role in the microcolumnar organization of neocortical circuits in primates (Yanez et al 2005;DeFelipe et al 2006;Jones 2009).…”
Section: Introductionmentioning
confidence: 99%
“…These cells are characterized by long, vertically oriented axon collaterals that can form hundreds of inhibitory synapses with dendrites of pyramidal cells from several cortical layers (Cajal 1899;DeFelipe et al 2006). This unique morphology is not evident in rodents but is thought to play a critical role in the microcolumnar organization of neocortical circuits in primates (Yanez et al 2005;DeFelipe et al 2006;Jones 2009). Because CGE/LGE-derived, VIP + /CR + GABAergic neurons are present in rodent neocortex, these observations suggest that horse-tail neurons in primates represent an elaboration of an existing cell type (as opposed to wholesale creation of a novel cell type; Hansen et al 2013).…”
Section: Introductionmentioning
confidence: 99%
“…In primary visual cortex (V1), the architecture of Old World monkeys and great apes, including humans, is qualitatively similar, although there are numerous quantitative differences among these species (Horton and Hedley-Whyte, 1984; Preuss et al, 1999; Preuss and Coleman, 2002; DeFelipe et al, 2006). One common characteristic of the visual system across these species is the distribution of the three cone photoreceptors (L-, M-, and S-cones) that feed into the different classes of ganglion cells giving rise to the correspondingly elaborate retino-geniculo-cortical pathway (Leventhal et al, 1981; Livingstone and Hubel, 1988; Kaas and Huerta, 1988; Conley and Fitzpatrick, 1989; Casagrande and Norton, 1991; Casagrande, 1994; Hendry and Yoshioka, 1994).…”
mentioning
confidence: 99%