Retinal dopamine is released by a specialized subset of amacrine cells in response to light and has a potent influence on how the retina responds to, and encodes, visual information. Here, we address the critical question of which retinal photoreceptor is responsible for coordinating the release of this neuromodulator. Although all three photoreceptor classes—rods, cones, and melanopsin-containing retinal ganglion cells (mRGCs)—have been shown to provide electrophysiological inputs to dopaminergic amacrine cells (DACs), we show here that the release of dopamine is defined only by rod photoreceptors. Remarkably, this rod signal coordinates both a suppressive signal at low intensities and drives dopamine release at very bright light intensiti...
In mammals, a small number of retinal ganglion cells express melanopsin, an opsin photopigment, allo...
Vertebrate vision relies on two types of photoreceptors, rods and cones, which signal increments in ...
In bright light, cone-photoreceptors are active and colour vision derives from a comparison of signa...
Light-dependent release of dopamine (DA) in the retina is an important component of light-adaptation...
Dopamine modulation of retinal signaling has been shown to be an important part of retinal adaptatio...
During adaptation from dim to bright environments, changes in retinal signaling are mediated, in par...
The adaptation of ganglion cells to increasing light levels is a crucial property of the retina. The...
Throughout the course of a day, our eyes are exposed to an enormous range of environmental light int...
SummaryDark and light adaptation of retinal neurons allow our vision to operate over an enormous lig...
Light-induced extrasynaptic dopamine release in the retina reduces adenosine 3',5'-cyclic monophosph...
During adaptation to an increase in environmental luminance, retinal signaling adjustments are media...
This review summarizes the experimental evidence in support of dopamine's role as a chemical messeng...
Vertebrates can detect light intensity changes in vastly different photic environments, in part, bec...
Light adaptation allows the retina to change its functional range so that it is appropriate for the ...
The retina is able to adapt to light intensities that range over several orders of magnitude. Dopami...
In mammals, a small number of retinal ganglion cells express melanopsin, an opsin photopigment, allo...
Vertebrate vision relies on two types of photoreceptors, rods and cones, which signal increments in ...
In bright light, cone-photoreceptors are active and colour vision derives from a comparison of signa...
Light-dependent release of dopamine (DA) in the retina is an important component of light-adaptation...
Dopamine modulation of retinal signaling has been shown to be an important part of retinal adaptatio...
During adaptation from dim to bright environments, changes in retinal signaling are mediated, in par...
The adaptation of ganglion cells to increasing light levels is a crucial property of the retina. The...
Throughout the course of a day, our eyes are exposed to an enormous range of environmental light int...
SummaryDark and light adaptation of retinal neurons allow our vision to operate over an enormous lig...
Light-induced extrasynaptic dopamine release in the retina reduces adenosine 3',5'-cyclic monophosph...
During adaptation to an increase in environmental luminance, retinal signaling adjustments are media...
This review summarizes the experimental evidence in support of dopamine's role as a chemical messeng...
Vertebrates can detect light intensity changes in vastly different photic environments, in part, bec...
Light adaptation allows the retina to change its functional range so that it is appropriate for the ...
The retina is able to adapt to light intensities that range over several orders of magnitude. Dopami...
In mammals, a small number of retinal ganglion cells express melanopsin, an opsin photopigment, allo...
Vertebrate vision relies on two types of photoreceptors, rods and cones, which signal increments in ...
In bright light, cone-photoreceptors are active and colour vision derives from a comparison of signa...