Linked from

The 39 pages that link to Cone cell, each with the reason it gives.

• Color visionRelated: Reconnects the perception story to its retinal hardware.

• Opponent process theoryRelated: Opponent channels are built from signals originating in cone cells.

• Color (visual perception)Related: Three classes of cones provide the main inputs for human color discrimination.

• Subtractive colorRelated: Cone responses turn the remaining reflected wavelengths into a perceived color.

• OpsinRelated: Different cone opsins give cone classes distinct wavelength sensitivities.

• Fovea (retina)Related: Cones are densely packed in the fovea and provide its detailed, color-rich vision.

• Primary colorsRelated: Three cone classes underlie the trichromatic model of human color perception.

• Peripheral visionRelated: Cones become sparse away from the center, limiting peripheral detail and color.

• RedRelated: Cone responses help the visual system produce the experience of red.

• ColorfulnessRelated: Cone responses provide the chromatic signals from which colorfulness is judged.

• Young–Helmholtz theoryRelated: The theory’s three receptor types correspond broadly to cone classes in the retina.

• GreenRelated: Green perception depends on the combined responses of three cone classes.

• Purkinje effectRelated: Their longer-wavelength sensitivity dominates before falling illumination shifts vision toward rods.

• IndigoRelated: Cone responses help produce the perception of indigo hues.

• Yellow (color)Related: Cone responses, rather than single wavelength detectors, underlie perceived yellow.

• Stargardt diseaseRelated: Macular injury particularly affects cone-mediated central vision.