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1. Amber Blue 3d Images Background

ColorCode 3D™ is a Danish state-of-the-art 3D stereo image technology. ColorCode 3D™ Stereo system can be used with nearly all media: computer monitors, print, films, DVD’s and many more applications. ColorCode 3D is sometimes confused with anaglyph red/cyan because of the colored filters in the ColorCode Glasses, but both the filters and the encoding process are entirely different. The ColorCode 3D glasses are equipped with special amber and blue filters, which are developed together with the ColorCode 3D encoding as a matched pair.

Amber Blue 3d Images Background

The color information is conveyed through the amber filter and the parallax information - to perceive depth - is conveyed through the blue filter. Project on finance for mba. The color results are better than red/cyan or red/blue particularly for flesh tones.When higher quantities are ordered, the glasses are shipped flat.Our glasses are made from more durable cardboard. There are many YOUTUBE movies in ColorCode to enjoy with your glasses. Further Anglyph Information:Anaglyph images can use several possible color schemes (sometimes the eye colors are swapped). Under the principle of trichromacy, the three primary colors of red, green, and blue act as the filters, and ideally, if the colors are to be mixed, the two eyes should not both have any of those colors, or else ghosting occurs.

As such, there are only six possible combinations of colors possible for pure anaglyphs: red-green, red-blue, green-blue (extremely rare), red-cyan (green+blue), green-magenta (red+blue), or blue-yellow (red+green).Viewing anaglyphs through appropriately colored glasses results in each eye seeing a slightly different picture. In a red-cyan anaglyph, for instance, the eye covered by the red filter sees the red parts of the image as 'white', and the cyan parts as 'black' (with the brain providing some adaption for color); the eye covered by the cyan filter perceives the opposite effect. True white or true black areas are perceived the same by each eye. The brain blends together the image it receives from each eye, and interprets the differences as being the result of different distances. This creates a normal stereograph image without requiring the viewer to cross his or her eyes.