Retinal ganglion cell density and cortical magnification factor in the primate
Reference (62)
- et al.
Colocalization of [3H] muscimol uptake and choline acetyltransferase immunoreactivity in amacrine cells of the cat retina
Neuroscience Letters
(1988) - et al.
Naso-temporal asymmetry of visual perception and of the visual cortex
Vision Research
(1988) - et al.
Effect of practice and the separation of test targets on foveal and peripheral stereoacuity
Vision Research
(1983) - et al.
Vernier acuity, crowding and cortical magnification
Vision Research
(1985) - et al.
Retinal ganglion cells that project to the superior colliculus and pretectum in the macaque monkey
Neuroscience
(1984) - et al.
The ganglion cell and cone distributions in the monkey's retina: Implications for central magnification factors
Vision Research
(1985) - et al.
The lengths of the fibres of Henle in the retina of macaque monkeys: Implications for vision
Neuroscience
(1988) - et al.
Retinal ganglion cells that project to the dorsal lateral geniculate nucleus in the macaque monkey
Neuroscience
(1984) Why the cortical magnification factor in rhesus cannot be isotropic
Vision Research
(1982)- et al.
Physiological studies on neural mechanisms of visual localization and discrimination
American Journal of Ophthalmology
(1941)
The visual field representation in the striate cortex of the macaque monkey: Asymmetries, anisotropies and individual variability
Vision Research
GABA-like immunoreactivity in cholinergic amacrine cells of the rabbit retina
Brain Research
The spatial grain of the perifoveal visual field
Vision Research
Estimation of nuclear population from microtome sections
Anatomy Record
Organization of the primate retina: Light microscopy
Philosophical Transactions of the Royal Society Series B
Cone connections of the horizontal cells of the rhesus monkey's retina
Cholinergic amacrine cells of the rabbit retina contain glutamate decarboxylase and γ-aminobutyrate immunoreactivity
The projection of the retina on to striate and prestriate cortex in the squirrel monkey Saimiri sciureus
Journal of Neurophysiology
Distribution of cones in human and monkey retina: Individual variability and radial asymmetry
Science
The representation of the visual field on the cerebral cortex in monkey
Journal of Physiology, London
Magnification factor and receptive field size in foveal striate cortex of the monkey
Experimental Brain Research
The neural representation of visual space
Nature, London
Non-linear projection of the retinal image in a wide-angle schematic eye
British Journal of Ophthalmology
GABA-like immuno-reactivity in the macaque monkey retina: a light and electron microscopic study
Journal of Comparative Neurology
Stereology of arbitrary particles: A review of unbiased number and size estimators and the presentation of some new ones
Journal of Microscopy
Uniformity of monkey striate cortex: A parallel relationship between field size, scatter, and magnification factor
Journal of Comparative Neurology
A newly identified population of presumptive microneurones in the cat retinal ganglion cell layer
Nature, London
Immunocytochemical studies on astroglia of the cat retina under normal and pathological conditions
Journal of Comparative Neurology
Organization of the outer plexiform layer of the primate retina. Electron microscopy of Golgi-impregnated cells
Philosophical Transactions of the Royal Society, Series B
A second type of midget bipolar cell in the primate retina
Philosophical Transactions of the Royal Society, Series B
GABA-immunoreactive synaptic plexus in the nerve fiber layer of primate retina
Visual Neuroscience
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Rapid visual adaptation persists across saccades
2021, iScienceCitation Excerpt :Negative afterimages resulting from mid-photopic stimulation (such as here) should, however, have their origin in the adaptation of retinal ganglion cells (Zaidi et al., 2012). Given that we found a stronger adaptation effect in the central visual field compared to the periphery and that an adapted state itself does not remap across saccades (He et al., 2018), one could conclude that the observed proportional contributions to the adaptation effect are related to the varying density of ganglion cells across the visual field, which decreases with increasing eccentricity (Wässle et al., 1990). We show that luminance adaptation can be strong, rapid, and persistent enough to attenuate contrast perception within natural fixation durations and that this effect can outlast a large saccade despite the strong disruption of visual input.
Establishing the ground squirrel as a superb model for retinal ganglion cell disorders and optic neuropathies
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2020, Vision ResearchCell types and cell circuits in human and non-human primate retina
2020, Progress in Retinal and Eye ResearchCitation Excerpt :Thus the ganglion cell density between central and peripheral retina in humans varies by a factor of 100, and about 50% of the ganglion cells are located within a 4.5 mm radius of the foveal centre (Curcio and Allen, 1990). This high concentration of ganglion cells in central primate retina is reflected in the high proportion of visual cortex devoted to central vision (Wässle et al., 1989b, 1990). In contrast, a mouse retina has a total of about 50,000 ganglion cells with an average density of 3,300 ganglion cells/mm2 (Dräger and Olsen, 1981; Williams et al., 1996; Jeon et al., 1998).