Abstract:
A method of forming a BOA substrate includes forming an array substrate comprising a display area and a non-display area; coating a black matrix in the display area of the array substrate, and patterning the black matrix; and installing photoresist on the array substrate. The present invention also proposes a BOA substrate. The method of forming the BOA substrate enhance the quality of the BOA substrate, and further influence the display quality of LCD panels.
Abstract:
In an electro-optical device 100, a color filter substrate 20 is provided with colored pixels, which are: a red pixel 2(R) with a colored layer 28(R) formed inside a concave portion 25(R) formed in a first surface 20s of a light-transmissive substrate 20d, a green pixel 2(G) with a colored layer 28(G) formed inside a concave portion 25(G) formed in said surface, and a blue pixel 2(B) with a colored layer 28(B) formed inside a concave portion 25(B) formed in said surface. In addition, in the substrate 20d, a non-colored pixel 2(W), at which no colored layer is provided, is provided outside the concave portion 25(R), 25(G), 25(B) at a position where the thickness of the substrate 20d is greater than that at the colored pixels.
Abstract:
Systems and methods in accordance with embodiments of the invention pattern array camera modules with π filter groups. In one embodiment, an array camera module includes: an M×N imager array including a plurality of focal planes, where each focal plane includes an array of pixels; an M×N optic array of lens stacks, where each lens stack corresponds to a focal plane, and where each lens stack forms an image of a scene on its corresponding focal plane; where each pairing of a lens stack and focal plane thereby defines a camera; where at least one row in the M×N array of cameras includes at least one red camera, one green camera, and one blue camera; and where at least one column in the M×N array of cameras includes at least one red camera, one green camera, and one blue camera.
Abstract:
Embodiments of the invention disclose a color filter substrate comprising: an underlying substrate; a semi-transparent and semi-reflecting layer formed on the underlying substrate; and a black matrix and a color filter layer formed on the semi-transparent and semi-reflecting layer. The black matrix and the color filter layer are formed on a side of the semi-transparent and semi-reflecting layer opposite from the underlying substrate. Other embodiments of the invention further disclose a method for manufacturing the color filter substrate, and a display device comprising the color filter substrate.
Abstract:
The present invention provides a display substrate and a manufacturing method thereof, and a display device, the display substrate comprises an active area, a first black matrix and a light leaking region, the first black matrix surrounding the active area, and the light leaking region surrounding the periphery of the first black matrix, wherein the display substrate further comprises a filter layer surrounding the first black matrix, the filter layer covers the light leaking region so as to reduce the transmittance of light at the light leaking region, and the resistivity of the filter layer is larger than that of the first black matrix. In the display substrate, the light leaking region is covered by the filter layer, the transmittance of light at light leaking region is thus reduced, therefore, likelihood of viewer observing light leakage at the light leaking region may be decreased.
Abstract:
Monochromatic cameras and methods for using such cameras to obtain a still or video color image of an object or scene. The image sensor of such cameras is clear, without a color filter array. A diffused-dispersed and optionally randomized image of the object or scene obtained at the image sensor is processed directly into a number R
Abstract:
An image sensor includes an optical sensor layer including a plurality of light-sensitive cells configured to sense light to generate electrical signals, and a color filter array layer disposed on the optical sensor layer and including a plurality of color filters respectively facing the plurality of light-sensitive cells. Each of the plurality of color filters includes a nanostructure in which a first material having a first refractive index and a second material having a second refractive index higher than the first refractive index are arranged. The first material and the second material are alternatively positioned at an interval less than a central wavelength of a color of the color filter. Thus, a thin image sensor having good wavelength selectivity and suitable for obtaining high resolution images is provided.
Abstract:
The present invention provides a liquid crystal display device which prevents a decrease in the voltage holding ratio (VHR) of a liquid crystal layer and an increase in ion density (ID) therein and which overcomes problems of defective display such as dropouts, uneven alignment, and screen burn-in. The liquid crystal display device of the present invention prevents a decrease in the voltage holding ratio (VHR) of a liquid crystal layer and an increase in ion density (ID) therein and reduces defective display such as screen burn-in; hence, such a liquid crystal display device is properly used as liquid crystal display devices of a VA mode and PSVA mode which involve active matrix driving and can be applied to liquid crystal display devices of liquid crystal TV sets, monitors, mobile phones, and smartphones.
Abstract:
The purpose of the invention is to provide a high-transparency light-emitting material of sufficient durability to minimize long-term degradation of semiconductor nanoparticles due to oxygen, etc.; and a method for producing said material. This light-emitting material is characterized in containing semiconductor nanoparticles, a metal alkoxide, and a silicon compound.
Abstract:
Provided are a colored composition which can maintain good light fastness even when placed under an environment having a low oxygen concentration for a long period of time, a cured film, a color filter, a method for producing a color filter, a solid-state image sensor, and an image display device.The colored composition includes a dye multimer (A) and a solvent (B), in which the dye multimer (A) has a partial structure derived from a xanthene dye having a cationic moiety, and also has an anionic moiety, and the content of water in the colored composition is 0.01% by mass to 3.0% by mass.