Shenzhen China Star Optoelectronics Technology Co., Ltd.

Jinbo Guo

Zui Wang

Jinjie Wang

Huan Liu

Shih-hsun Lo

Hua Zheng

Caiqin Chen

Chuan Wu

Cheng-hung Chen

Shishuai Huang

Tien-Hao Chang

Shouzhen Yue

Shin-Hsun Lo

Shihhsun Lo

The present disclosure relates an array substrate and a liquid crystal panel. A plurality of sets of gate lines are arranged on the array substrate, each set of gate line at least includes a first gate line and a second gate line, each set of gate line is arranged corresponding to a switch unit, the switch unit is alternately applied the inputted scanning signal on the first gate line and the second gate line. Through the above-describe manner, the present disclosure is possible to resolve the problems of the image sticking and the inconsistent of the left and right eyes brightness when the large-size panel displaying the 3D image, and thus enhance the quality of 3D image.

Array substrate and liquid crystal panel

Disclosed are a liquid crystal display panel and a liquid crystal display device for improving display brightness uniformity. The liquid crystal display panel includes a display substrate, a source driving circuit and a plurality groups of gate driving circuits. Each gate driving circuit includes a gate driving chip and a group of fan-out circuits, and resistances of wirings of different groups of fan-out circuits gradually increase along a direction away from the source driving circuit. The liquid crystal panel can improve brightness uniformity in different positions while displaying.

Liquid crystal display panel and liquid crystal display device for improving display brightness uniformity

Disclosed is a pixel electrode and an array substrate. The pixel electrode is divided into four alignment regions, and each of the alignment regions includes two trunk electrodes arranged in a horizontal direction and a vertical direction respectively. The trunk electrode in the vertical direction is located at independent edges of each of the alignment regions. Each of the trunk electrodes has a maximum width at a perpendicular intersecting point of the trunk electrodes. The pixel electrode significantly reduces a dark area inside of a pixel unit and increases transmittance of a pixel.

Pixel electrode and array substrate

A spacer manufacturing device is disclosed. The device includes a photo mask having a central light-transmitting region and a peripheral light-transmitting region disposed at a periphery of the central light-transmitting region; and an exposure device right opposite to the photo mask. Light emitted from the exposure device is irradiated to a negative photoresist material after passing through the photo mask, the light intensity passing through the peripheral light-transmitting region is less than the light intensity passing through the central light-transmitting region. A spacer is also disclosed. Only one exposure process is required to realize the spacer having a convex-shaped cross section. The process is simple and the manufacturing cost is low. At the same time, flatness of the convex shoulder of the spacer having a convex-shaped cross section is adjustable, which can satisfy the requirement for manufacturing spacers having different specifications.

Spacer and manufacturing device for the same

Disclosed is an array substrate, a liquid crystal display panel, and a driving method. The array substrate includes a plurality of pixel units, which is arranged in a pixel matrix; and a plurality of data lines, which is arranged to run through the pixel units. With respect to each of the data lines inside of boundary data lines of the pixel matrix, two pixel units electrically connected thereto in sequence are located in adjacent rows and at adjacent columns in the pixel matrix. The array substrate improves an aperture ratio of the pixel unit, which contributes to improvement of the quality of images.

Array substrate, liquid crystal display panel, and method for driving the liquid crystal display panel

The present disclosure discloses a liquid crystal panel, including an array substrate and a color filter substrate formed oppositely to the array substrate and a LC layer sandwiched between the array substrate and the color filter substrate, and a seal formed around the LC layer. A wall is formed on a position of the array substrate next to the seal and toward the LC layer. Multiple color resister units are sequentially connected on a coplanar face to form the wall. The color resister A is formed by more than three color resisters sequentially arranged and the adjacent color resisters the two color resister units A are different. The present disclosure provides a liquid crystal display device.

Liquid crystal panel and liquid crystal display device

A spacer manufacturing device is disclosed. The device includes a photo mask having a central light-transmitting region and a peripheral light-transmitting region disposed at a periphery of the central light-transmitting region; and an exposure device right opposite to the photo mask. Wherein, light emitted from the exposure device is irradiated to a negative photoresist material after passing through the photo mask, the light intensity passing through the peripheral light-transmitting region is less than the light intensity passing through the central light-transmitting region. A spacer is also disclosed. Only one exposure process is required to realize the spacer having a convex-shaped cross section. The process is simple and the manufacturing cost is low. At the same time, a flatness of the convex shoulder of the spacer having a convex-shaped cross section is adjustable, which can satisfy the requirement for manufacturing spacers having different specifications.

A pixel structure includes pixel electrodes, data lines, and gate lines. Each of the pixel electrodes has two opposite ends that are each provided with one of the gate lines. The data lines and the gate lines re perpendicular to each other. Each of the pixel electrodes includes at least two sub-pixel domains. The data lines are located beneath the pixel electrode at interfacing between every two adjacent ones of the sub-pixel domains. The pixel electrodes each include slits located in the interfacing of the two adjacent sub-pixel domains. The slits are in alignment with the data line and located above the data line. Also provided is a liquid crystal display. The pixel structure and a liquid crystal display including the pixel structure have a reduced overlapping area between the data line and the pixel electrode above the data line so as to reduce parasitic capacitance and improve V-crosstalk.

Pixel structure and liquid crystal display comprising the pixel structure

A display panel is disclosed and includes an active area and a non-active area. A first, a second, a third, a fourth, a fifth, and a sixth charging scanning lines and a first, a second, a third, a fourth, a fifth, and a sixth charge-sharing scanning lines of an array unit on the active area are connected to a first, a second, a third, a fourth, a fifth, and a sixth pixel row, respectively. A first, a second, and a third detection lines on the non-active area are connected to the active area.

Display panel

The Present disclosure relates to the field of display technology and discloses an array substrate and a curved display device which can solve the technical problem of dark area on both sides of the existing curved display device. The array substrate according to the present disclosure comprises a number of sub pixel units arranged as an array, each sub pixel unit comprising a main sub pixel, a secondary sub pixel and a voltage-dividing capacitor. Said array substrate is divided into a compensation region and a non-compensation region. The capacitance of the voltage-dividing capacitor of the sub pixel unit in the compensation region is smaller than that of the voltage-dividing capacitor of the sub pixel unit in the non-compensation region. The present disclosure is applicable to curved display devices such as curved television and curved display, etc.

Array substrate and curved display device

An array substrate and a detecting circuit thereof are disclosed. The detecting circuit comprises a detecting unit, which comprises a first to a sixth detecting lines; a switching signal access unit, used for receiving a switching control signal; a detecting signal access unit, used for receiving a first detecting signal or a second detecting signal; and a switching unit, comprising a first switching line and a second switching line, which are connected among the detecting unit, the switching signal access unit and the detecting signal access unit. The array substrate comprises an active area and a detecting circuit.

Array substrate and detecting circuit thereof

A display panel includes a plurality of primary pixel units. Each primary pixel unit includes two primary pixels arranged horizontally. Each of the primary pixels comprises a plurality of subpixels arranged vertically and comprising different colors, and arrangements of the plurality of subpixels with different colors of the adjacent primary pixels being different. The result of the arrangement is neutralization of the adjacent primary pixels, and the neutral effect is 'red with white tone.' So color shift caused by the overloaded data line is prevented, which effectively improves color shift occurring in the 3G1D LCD panel and enhances the display effect of the LCD panel.

A detecting circuit comprises a first to a third detecting line, a first and a second control line, and a first to a sixth transistor set. Each transistor set comprises a first and a second transistor, a control terminal thereof couples to the first and the second control line, respectively, a first terminal thereof couples to one of the first to the third detecting line, a second terminal thereof couples to the second terminal of the second transistor in the same transistor set. The connection nodes compose a dot set [(3,3), (2,2), (3,1), (2,3), (3,2), (2,1)], wherein the numerals 1-3 represent the first to the third detecting line, a first and a second numeral of a dot represent that a first terminal of the first and the second transistor connect to the detecting lines represented by the numerals, respectively.

Detect circuit and display device

The present invention provides a pixel structure and a liquid crystal panel having the pixel structure. The pixel structure includes a plurality of sub pixel units, a plurality of data lines respectively supplying data signals to the sub pixel units, and a black matrix () arranged to correspond to the data lines and the sub pixel units. The plurality of sub pixel units is arranged in multiple columns of which two adjacent columns of the sub pixel units are sequentially grouped and defined as a sub-pixel-unit-column pair (). Each of the sub-pixel-unit-column pairs () shows mirror symmetry. The data lines are respectively arranged in the sub-pixel-unit-column pairs (). The black matrix () includes first portions () located above the data lines, second portions () each located between two adjacent ones of the first portions (), and third portions () respectively and perpendicularly connected to opposite ends of the first portions () and the second portions (). The first portions () have a width that is greater than the width of the second portions ().

Pixel structure comprising a black matrix having first and second portions wherein the second portion is in exact alignment with an edge of a pixel electrode and liquid crystal display panel having same

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Guangdong, China

Jinbo Guo