Three Prenatal Developments in the Retina Allow for Cortico-Retinal Image Processing in Situ in the Eye

Norbert Lauinger
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Abstract

Image processing in the retina of the eye has thus far been mainly dealt with analogous to photographic ray optics i. e., imaging lens optics and photodiode arrays. However, it does not offer an answer to the questions that are crucial to human vision: WHAT a visible object invariantly represents conceptually (a house, a tree, etc.), WHERE it is located in relation to other objects in space or which RGB-colors and/or luminosities collaborate locally. For this purpose, ray optics needs to be supplemented by diffractive wave optics, which can be described as Fresnel near-field interference in cellular or spatial gratings. The fact that interference optics plays a decisive role in vision has already been proven by the fact that in binocular vision the image brightness is preserved when closing one eye. However, with the introduction of interference-wave-optics and especially with Fresnel Nearfield interference optics the cortico-retinal image processing now becomes possible in the eye, i.e. in the retina of the peripheral visual organ. Fresnel Nearfield interference optics especially allows multilayer proceeding and a better understanding of hierarchical imaging systems. It clearly becomes apparent in the di- and trichromatic proceeding and by the separation of color proceeding from invariant object form proceeding. Color - as an example - is not produced at the visual objects and also not in the cortex, but in the Fresnel space of the retina.
视网膜的三种产前发育可在眼内就地进行皮质-视网膜图像处理
迄今为止,眼底视网膜的图像处理主要涉及类似摄影光线光学,即成像透镜光学和光电二极管阵列。然而,这并不能解答对人类视觉至关重要的问题:一个可见物体在概念上始终代表什么(一幢房子、一棵树等),它与空间中其他物体的位置关系如何,或者哪些 RGB 颜色和/或亮度在局部协作。为此,射线光学需要衍射波光学的补充,衍射波光学可以描述为蜂窝光栅或空间光栅中的菲涅尔近场干涉。干涉光学在视觉中起决定性作用的事实已经得到证明,在双眼视觉中,闭上一只眼睛,图像亮度仍能保持不变。然而,随着干涉波光学技术的引入,尤其是菲涅尔近场干涉光学技术的引入,皮质-视网膜图像处理现在可以在眼内,即在外周视觉器官的视网膜上进行。菲涅尔近场干涉光学技术尤其可以进行多层处理,并能更好地理解分层成像系统。这一点在二色和三色过程中,以及从不变的物体形状过程中分离出颜色过程中都非常明显。例如,颜色不是在视觉物体上产生的,也不是在大脑皮层中产生的,而是在视网膜的菲涅尔空间中产生的。
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