Cones allow seeing higher rates of flickering lights

RGCs with ON centre RFs allow seeing higher rates of flickering lights

RGCs with OFF centre RFs allow seeing higher rates of flickering lights

RGCs from para-foveal regions allow seeing higher rates of flickering lights

RGCs with wavelength sensitive RFs allow seeing higher rates of flickering lights

consists of ON centre and OFF centre cells where the centre is selective for Red or Green light.

consists of cells receiving most of their input from cones at the optic disk.

consists only of ON centre cells where the centre is selective for Red or Green light.

consists of cells receiving inputs only from rods.

 consists of ON centre cells where the centre is selective for Red light and OFF centre cells where the centre is selective for Green light.

Due to the light adaptation properties of Guanylate cyclase in photoreceptors

Due to the rapid adaptation properties of rods

Due to the light adaptation properties of Guanylate cyclase in rods

Due to the rapid adaptation properties of cones

Due to the light adaptation properties of Guanylate cyclase in cones

The membrane potential becomes hyper-polarized over time

The enzyme Guanylate cyclase is released from Ca⁺⁺-mediated inhibition

Rhodopsin is regenerated more rapidly in the dark

The enzyme PDE is released from Na⁺-mediated inhibition

Rhodopsin is regenerated more rapidly in the light

there is the greatest spherical aberration here.

retinal ganglion cells here receive input only from cones.

retinal ganglion cells here have the smallest receptive fields.

retinal ganglion cells here have wavelength-selective receptive fields.

 retinal ganglion cells here have the largest receptive fields.

cones respond more quickly and recover more quickly than do rods.

cones have less photopigment and a less efficient light-activated cascade.

rods have only one wavelength sensitivity curve.

cones are less sensitive to absolute light levels than rods.

cones are concentrated at the fovea and responsible for axial vision.

directly to retinal ganglion cells via chemical signalling.

None of the statements here is correct.

directly to retinal ganglion cells via electrical signalling.

directly to bipolar cells via electrical signalling.

directly to bipolar cells via chemical signalling.

light in the RF centre getting more focused

light in the RF centre getting brighter.

light in the RF surround getting brighter.

light in the RF centre and surround getting brighter.

either red or green wavelength light in the RF centre.