How does magenta look like

Is green somehow being discriminated against? The light spectrum consists of a range of wavelengths of electromagnetic radiation.

Red light has the longest wavelength; violet the shortest. The colours in between have wavelengths between those of red and violet light. When our eyes see colours, they are actually detecting the different wavelengths of the light hitting the retina.

Colours are distinguished by their wavelengths, and the brain processes this information and produces a visual display that we experience as colour. If the eye receives light of more than one wavelength, the colour generated in the brain is formed from the sum of the input responses on the retina.

For example, if red light and green light enter the eye at the same time, the resulting colour produced in the brain is yellow, the colour halfway between red and green in the spectrum. So what does the brain do when our eyes detect wavelengths from both ends of the light spectrum at once i. Generally speaking, it has two options for interpreting the input data: a Sum the input responses to produce a colour halfway between red and violet in the spectrum which would in this case produce green — not a very representative colour of a red and violet mix b Invent a new colour halfway between red and violet Magenta is the evidence that the brain takes option b — it has apparently constructed a colour to bridge the gap between red and violet, because such a colour does not exist in the light spectrum.

Magenta has no wavelength attributed to it, unlike all the other spectrum colours. We need colour to make sense of the world, but equally we need to make sense of colour; even if that means taking opposite ends of the spectrum and bringing them together. Well, now we've got that sorted out, explain this: stare at the dot in the middle of the image below - you should see all the colours melt away. In this optical illusion you can notice a green circling dot, if you fixate your gaze on the cross.

To observe the visible spectrum, light receptors within the eye transmit messages to the brain, which then produces color Color intelligence, Before all else, it is important to establish that the color magenta is just an illusion created by our eyes. This purplish-red-crimson color, located between red and blue on the color wheel, is extra special as it is not found on the visible spectrum of light and there is no wavelength of light that corresponds to that particular color.

Rather, it is physiologically and psychologically perceived as a mixture of red and blue. Our eyes have receptors called cones for three different colors: red, green, and blue. By combining the three colors in different ways, secondary colors can be created. For example, a combination of blue and red makes purple. This is not only important for being able to interpret colors immediately, but also it allows the brain to correct for different color temperatures.

For instance, our brains report white paper as white even if it were under a blue light, despite only activating the blue receptors. By exploiting this fact about how our eyes work and exposing our eyes to bright primary or secondary colors, we can saturate the corresponding cones and thus block out other signals. The effect soon fades, however, as the brain readjusts to the normal world. Researchers have criticized this possibility of impossible colors as they believe these are just intermediary colors between two color cones Pappas, Hex: FF00FF.

Magenta is the color of universal harmony and emotional balance. Its contains the passion, power and energy of red, restrained by the introspection and quiet energy of violet. It promotes compassion, kindness and cooperation. The color magenta is a color of cheerfulness, happiness, contentment and appreciation. The human brain perceives different wavelengths of light as different colors. Magenta is an extra-spectral color , meaning that it is not found in the visible spectrum of light.

But it gets stranger. We're not just talking about that sort of thing—we're talking about actual colors that you need to trick your brain into recalibrating itself in order to see. Our eyes have receptors called cones for three different colors: red, green, and blue. By measuring the combined responses, secondary colors can be constructed.

For example, a combination of red and green makes yellow. However, if the eye reports the red and green receptors are being stimulated, the brain also processes the absence of blue.