Shenzhen China Star Optoelectronics Technology Co., Ltd.

Tcl China Star Optoelectronics Technology Co., Ltd.

Shenzhen China Star Optoelectronics Semiconductor Display Technology Co., Ltd.

Hongquan Wei

Yichen Bai

Juncheng Xiao

Bin Zhao

Ji Li

Xiaolong Ma

Yanan Wang

Tao Hu

Zhijuan Long

A display module and a seamless splicing display device are disclosed. The display module includes: a display panel including a central display area and a bezel area adjacent to the central display area, wherein the display panel is provided with a bezel driving circuit and an array substrate driving circuit; a compensation display component disposed on the display panel, located in the bezel area, and electrically connected with the bezel driving circuit; and a metal wiring located on a lateral surface of the display panel and connected with the bezel driving circuit and the array substrate driving circuit.

Display module and seamless splicing display device

A pixel circuit of the present invention includes a thin-film transistor, a first scan line, a second scan line, and a data line. The first scan line is arranged along a first direction. The first scan line is electrically connected to the thin-film transistor. The second scan line is arranged along a second direction. The second scan line is electrically connected to the first scan line. The second direction is perpendicular to the first direction. The data line is arranged along the second direction. The data line is electrically connected to the thin-film transistor. The pixel circuit also includes an auxiliary scan line. The auxiliary scan line is arranged along the second direction. Two ends of the auxiliary scan line are electrically connected to the second scan line.

Pixel circuit and manufacturing method thereof

A pixel array, a display panel, and a display device are provided. The pixel array includes a first pixel electrode, a first data line, and a second data line. The first pixel electrode includes a first side and a second side opposite to the first side. The first data line is electrically connected to the first pixel electrode. The first data line is adjacent to the first side of the first pixel electrode and extends to the second side. The second data line is adjacent to the first data line. At least a portion of the second data line is disposed between the second side and the first data line. The first data line and the second data line are respectively configured to transmit signals with opposite polarities.

Pixel array, display panel, and display device

A flexible substrate, a method of manufacturing thereof, and display panel are provided. The flexible substrate includes a glass substrate, a first flexible base layer disposed on the glass substrate, a second flexible base layer disposed on the first flexible base layer, and a third flexible base layer disposed on the second flexible base layer.

Flexible substrate, method of manufacturing thereof, and display panel

The present disclosure provides an encapsulated fluorescent adhesive layer, a method for manufacturing the same, and a quantum dot backlight. The quantum dot backlight includes a substrate, a light emitting chip, and the encapsulated fluorescent adhesive layer. The encapsulated fluorescent adhesive layer is used for heat transfer and heat dissipation.

Encapsulated fluorescent adhesive layer having a quantum dot material

A flexible substrate and a manufacturing method thereof are provided. The flexible substrate includes a substrate and an alignment layer. The alignment layer is disposed on the substrate and is in direct contact with the substrate. The alignment layer includes an alignment material and a plurality of core-shell particles. The core-shell particles are suspended in a surface layer of the alignment layer. The core-shell particles are decomposed when the alignment material is cured by heat to simultaneously generate a plurality of hollow structures that are approximately same size as the core-shell particles in the alignment layer, thereby forming an anti-reflection layer. The anti-reflection layer is configured to refract and block light from entering the substrate.

Flexible substrate and manufacturing method thereof

The present disclosure relates to a photo-alignment material, a liquid crystal display panel, and a manufacturing method thereof. The chemical structural formulas of photo-alignment material includes an orientation anchor group, a linking group, a photosensitive group with one or more photosensitive cyclohexanone, and an alignment group with a linear or branched alkyl having 3-15 carbon atoms; wherein the orientation anchor group, the linking group, the photosensitive group and the alignment group are connected successively. Through the above-mentioned manner, the present disclosure can simplify the manufacturing process of the liquid crystal display panel, and improve the product quality.

Photo-alignment material, liquid crystal display panel, and manufacturing method thereof

The present invention provides a method for manufacturing a quantum dot color filter, which uses a printing mold to pick up quantum dots and printing the quantum dots into a partially cured photoresist layer and then separates the quantum dots and the printing mold, followed by irradiation of UV light to completely cure the photoresist layer so that the quantum dots may uniformly distributed in the photoresist layer. This simplifies the process of transferring a quantum dot layer and reduces cost; requires no process of forming a sacrifice layer and no step of dissolving the sacrifice layer to prevent damage to the quantum dot layer; allows the quantum dots to be uniformly distributed in the photoresist layer to thereby improve the utilization of the quantum dots; and allows a quantum dot color filter so manufactured to be used with white backlighting or blue backlighting for achieving displaying of three primary colors of red, green, and blue.

Method for manufacturing quantum dot color filter

A liquid crystal display apparatus is provided. The liquid crystal display apparatus includes a graphene LED backlight source, a first polarizing film, a first substrate, a liquid crystal layer, a second substrate and a second polarizing film. The graphene LED backlight source is used for providing light output, the first polarizing film is used for converting the light output from the backlight source into a polarized light. The liquid crystal layer includes liquid crystal molecules used for deflecting the polarized light from the backlight source to form a polarized output light, and the second polarizing film is used for emitting the polarized output light.

Liquid crystal display apparatus

The invention provides a quick response LCD device and manufacturing method thereof. The LCD device uses field sequential backlight module to realize color display and eliminates color films in conventional LCD panel to achieve high transmittance and color purity; a polymer liquid crystal layer () is disposed in LCD panel (), the polymer liquid crystal layer () comprises a polymer network () formed by polymerizable monomers and liquid crystal () anchored by the polymer network () to stay in bend state without electricity and in homeotropic state when electricity applied. The warm-up process of the conventional OCB mode is omitted to achieve quick response.

Quick response liquid crystal display device and manufacturing method thereof

The present invention provides a liquid crystal display device and a manufacturing method thereof. The liquid crystal display device uses a quantum rod orientation layer () to conduct parallel alignment of a quantum rod layer () so that the aligned quantum rod layer () may replace a conventional lower polarizer. The liquid crystal display device manufacturing method applies an inclined vapor deposition process to form a quantum rod orientation layer (). The quantum rod orientation layer () includes a plurality of grooves () that has an extension direction substantially perpendicular to a transmission axis direction of an upper polarizer (). A quantum rod layer () is then formed on the quantum rod orientation layer (). The quantum rod layer () so formed includes a plurality of quantum rods () that has a long axis direction substantially parallel to the extension direction of the grooves (), namely parallel alignment of the quantum rod layer (). The aligned quantum rod layer () may replace a conventional lower polarizer to improve light transmission rate and utilization of backlighting, increasing displaying brightness and reducing manufacturing cost.

Growing community of inventors

Shenzhen, China

Hongquan Wei