A New Interpretation of the Physical Color Theory Based on the Descartes´ Rotation Energy of Visible, Ultraviolet and Infrared Photons

Jiří Stávek
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引用次数: 1

Abstract

During the past four hundred years the Newtonian and Goethean schools collected many experimental observations on the formation of colors. The situation became more complicated after the experiments of Land who documented that the classical color theory (= colors correspond to exact wavelength of light) is valid completely in the dark surroundings only. We are at the crossroads to find the boundary between the physical properties of colors and the perception of those photons in the retina and the brain. Therefore, the more general physical color theory should interpret those color effects where the classical physical color theory fails. As a potential candidate we present the overlooked Descartes´ color theory based on the rotation energy of visible, ultraviolet, and infrared photons. The rotation energy of colors was defined as E = hν570*(λx/λ570) where index describes the wavelength of photons in nanometers. This new mathematical description of colors enables to newly interpret situations where the average rotation energy of all reflected photons determines the color impression. The colors formed behind the triangular prism could be interpreted as the lateral diffusion of the rotation energy of ultraviolet and infrared photons (= called by Old Masters as the interplay of darkness with the light) through the field of refracted visible photons and with the modification of their rotation energy. The white color can be interpreted as the constructive interference of red, green, and blue colors with the constructive angle cos (120°) = -0,5. The black color can be interpreted as the destructive interference of cyan, magenta, and yellow colors with the destructive angle cos (180°) = -1. For the case of illumination with a range of wavelengths the resulting color is determined from the average rotation energy of all reflected photons – a model for the interpretation of the color constancy.
基于可见、紫外和红外光子的笛卡尔旋转能量对物理颜色理论的新解释
在过去的四百年里,牛顿学派和歌德学派收集了许多关于颜色形成的实验观察结果。兰德的实验证明,经典的颜色理论(颜色与光的确切波长相对应)仅在黑暗环境中完全有效,这使得情况变得更加复杂。我们正处在寻找颜色的物理特性与视网膜和大脑中光子感知之间界限的十字路口。因此,更一般的物理色彩理论应该解释那些经典物理色彩理论无法解释的色彩效果。作为一个潜在的候选者,我们提出了被忽视的笛卡尔的颜色理论,该理论基于可见光、紫外线和红外光子的旋转能量。颜色的旋转能定义为E = ν570*(λx/λ570),其中折射率描述光子的波长,以纳米为单位。这种新的颜色数学描述使得我们能够对所有反射光子的平均旋转能量决定颜色印象的情况做出新的解释。在三角棱镜后面形成的颜色可以解释为紫外线和红外线光子的旋转能量(被古代大师称为黑暗与光的相互作用)通过折射的可见光子的场并随着它们的旋转能量的改变而横向扩散。白色可以解释为红、绿、蓝三色的相积干涉,其相积角cos(120°)= -0,5。黑色可以解释为青色、品红和黄色的相消干涉,相消角cos(180°)= -1。对于具有一定波长范围的照明,产生的颜色是由所有反射光子的平均旋转能量决定的——这是解释颜色恒常性的一个模型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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