Abstract:
An array substrate comprising a plurality of sub-pixel unit pairs and a display device are provided. Each sub-pixel unit pair comprises two adjacent sub-pixel units located in a same row. Two sub-pixel units in a same sub-pixel unit pair are mirror-symmetrical with respect to each other in structure, and a first common electrode forming an opaque region is arranged between said two sub-pixel units.
Abstract:
A liquid crystal panel and the array substrate thereof are disclosed. Each pixel cells of the liquid crystal panel includes one pixel electrode having a plurality of strip-like gaps and a plurality of strip-like first electrode patterns interleaved with each other. For all of the pixel cells, a sum of the dimension of the first electrode patterns of the pixel cell is gradually decreased along a direction from a central area toward two lateral areas of the liquid crystal panel. In this way, the brightness of the liquid crystal panel is uniform and the “two pale lateral areas” issue may be eased or eliminated.
Abstract:
The present disclosure relates to a gray-scale correction method of a display panel, comprising: selecting a plurality of measurement points and specifying a reference point; specifying a plurality of measurement gray-scales, and, under each measurement gray-scale, measuring actual gray-scale of each measurement point when the brightness thereof reaches a reference brightness, wherein the reference brightness is the brightness of the reference point; determining a gray-scale correction coefficient of each measurement point under each measurement gray-scale according to the corresponding relationship between the actual gray-scale and the measurement gray-scale, and establishing an original gray-scale correction coefficient table; extending the original gray-scale correction coefficient table to a gray-scale correction coefficient table of pixel points of the display panel under all gray-scales through linear interpolation algorithm; when a data voltage is to be applied to a pixel point under a gray-scale, searching the gray-scale correction coefficient corresponding to said gray-scale and said pixel point from the extended gray-scale correction coefficient table, correcting the value of said gray-scale accordingly, and driving the display panel according to the corrected gray-scale.
Abstract:
The present invention provides a liquid crystal display (LCD) panel and an array substrate thereof. The LCD panel includes a number of pixel units, each of the pixel units includes a pixel electrode, and each pixel electrode includes a number of bar-shaped gaps and a number of first electrode patterns. The bar-shaped gaps and the first electrode patterns are alternatively arranged. In the number of the pixel units, the sum of the area of the bar-shaped gaps in each of the pixel units increases gradually along a direction from a middle region of the LCD panel to side regions of the LCD panel, while the sum of the area of the first electrode patterns in each of the pixel units is same. By using the above means, the LCD panel of the present invention obtains better brightness uniformity, and “white sides” phenomenon is alleviated or even eliminated.
Abstract:
The present invention discloses methods and apparatus for fabricating display panels and color filter substrates. The fabricating methods include: providing a glass substrate having a flexible area; forming a etching material layer on a surface of the glass substrate; etching the etching material layer to form black matrices on the glass substrate, wherein the black matrix of the flexible area, which is narrower than the black matrix on the other area, corresponds to a vertical projection of a opaque area between pixels when the flexible area is bending. Hence, the present invention may reduce shadows and improve the transmittance by above methods.
Abstract:
The present disclosure relates to a method and an apparatus for manufacturing a curved liquid crystal display. The method includes: step a) providing a box body which is filled with liquid crystals and packaged; step b) curving the box body; and step c) polymerizing the liquid crystals at the inner surface of a first substrate and the liquid crystals at the inner surface of a second substrate in the box body respectively, so as to form respective pre-tilt angles corresponding to each other. The liquid crystal display obtained in this manner will present no abnormal dark fringes, so that the display quality of the liquid crystal display is improved.
Abstract:
A manufacturing method of a mask plate and an array substrate is provided. The mask plate is for manufacturing fanout leads in a non-effective display area on an array substrate. The mask plate includes a fanout lead pattern having a plurality of fanout impression lines, wherein each fanout impression line has a predetermined line width, and each of some of the fanout impression lines has at least one curve portion, wherein for one fanout impression line, a line width of the at least one curve portion is smaller than the predetermined line width of the fanout impression line. A manufacturing method of an array substrate utilizes the foregoing mask plate to manufacture the array substrate.
Abstract:
An array substrate is disclosed. A gate line group, common electrode line and two adjacent data lines together defining a pixel unit which has: a thin film transistor; a first and second pixel electrode disposed between the gate line group and the common electrode line; a sharing capacitor disposed between the gate line group and the pixel electrodes. The pixel units are arranged in a plurality of rows along the extending direction of data line, two adjacent pixel units are arranged sequentially in opposite direction. By using each of the sharing capacitors of the adjacent pixel units, the light leakage regions will be away from the openings of the pixel electrodes, therefore the movable mura can be eliminated without increasing the width of the black matrix and the aperture ratio loss can be solved.
Abstract:
An LCD panel applied to a curved screen includes display sections, each of which includes pixel units. Each pixel unit includes a primary sub-pixel, a secondary sub-pixel, a common electrode, and a sharing capacitance sheet. An area of the sharing capacitance of each display section is adjusted using a sharing capacitance sheet. So a ratio of the charging voltage on the secondary sub-pixel to the charging voltage on the primary sub-pixel in the central display section is between the ratio of the charging voltage on the secondary sub-pixel to the charging voltage on the primary sub-pixel in the first display section and the ratio of the charging voltage on the secondary sub-pixel to the charging voltage on the primary sub-pixel in the second display section. Therefore, the brightness of the curved screen on display is improved. The quality of the curved screen on image display is improved as well.
Abstract:
An LCD panel applied to a curved screen includes display sections and a black matrix layer. The black matrix layer is used for adjusting an area of the primary sub-pixel and an area of the secondary sub-pixel in each of display section, so that an area ratio of the secondary sub-pixel to the primary sub-pixel in the first display section equals to an area ratio of the secondary sub-pixel to the primary sub-pixel in the central display section, an area ratio of the secondary sub-pixel to the primary sub-pixel in the second display section is greater than that of the secondary sub-pixel to the primary sub-pixel in the first display section, an area of the primary sub-pixel in the central display section is lower than that of the primary sub-pixel in the first display section. Therefore, brightness and quality of the curved screen on image display are improved.