Abstract:
A backlight module for curved liquid crystal display device and a curved liquid crystal display device are disclosed. The backlight module comprises a backplate, a light guide plate and a backlight source that are arranged in the backplate, and quantum tubes that are arranged between the light guide plate and the backlight source, wherein a fold line which matches a curved surface of the curved liquid crystal display device is formed by the quantum tubes. In the backlight module, the fold line that is formed by the quantum tubes can be fitted into a curved line so as to match the curved surface of the curved liquid crystal display device. The quantum tubes can be applied to the curved liquid crystal display device through this arrangement, whereby the color purity of the curved liquid crystal display device can be improved, and the color gamut thereof can be enlarged.
Abstract:
A backplate molding device includes a top mold and a down mode. The top mold includes a plurality of punching heads having curved operation surfaces and a pressure plate. The punching heads are arranged in multi-sections and the pressure plate is arranged at a lateral side of the punching heads in the multi-section. An operation surface of the down mold is a curved surface engageable with the operation surfaces of the punching heads in the multi-section, and edges of the down mold cooperatively engages with the pressure plate to fix backplate materials. A punching process is applied toward the backplate material by bonding the operation surface of the punching heads with the operation surface of the down mold in sequence to plastically deform the backplate materials. The present disclosure also relates to a backplate molding method.
Abstract:
The present invention provides a display device, wherein the display device comprises a display panel and a light source, and the display panel comprises an array substrate, a color filter substrate and a display medium packaged between the array substrate and the color filter substrate, and the display medium comprises liquid crystal molecules and dichroic dye molecules, and the array substrate comprises a glass substrate, and the glass substrate is located at one side of the array substrate away from the display medium, and the glass substrate comprises an incident surface, and the light source is oppositely located with the incident surface of the glass substrate. The present invention further provides a display terminal.
Abstract:
An edge-type backlight source assembly includes at least one quantum bar (QD) tube bracket, at least one QD tube fixed within the QD tube bracket, a plurality of LED lamp bars, and a connector. The LED lamp bar includes a substrate and a plurality of LED lamps on the substrate, and the LED lamps emit blue light. The substrate is attached to a bottom of the QD tube bracket. The LED lamps are received within the QD tube bracket and are arranged to be opposite to the QD tube. The connector electrically connects with the adjacent two LED lamp bars and is fixed on a sidewall of the QD tube bracket. A backlight module is also disclosed. The connector, which is fixed on the sidewall of the QD tube bracket, electrically connects to the two adjacent LED lamps to ensure the wiring connection between the lamp bars.
Abstract:
The present invention provides a backplane and a backlight module and a liquid crystal display device using the backplane. The backplane includes: a bottom plate (2) and multiple side plates (4) connected to the bottom plate (2). The bottom plate (2) includes a base section (22) and a mounting section (24) connected to a lateral edge of the base section (22). The base section (22) has two ends that are each provided with a stepwise structure (222) for mounting a curved light guide plate to an inner side thereof. The mounting sections (24) has an outside surface that is curved for mounting a circuit board. The base section (22) has an outside surface on which first reinforcement ribs (226) and second reinforcement ribs (228) perpendicularly connected thereto are formed. The backplane and the backlight module and the liquid crystal display device using the backplane of the present invention help make the backplane simple in structure and easy to manufacture and simplifies the assembling operation and reduces the manufacturing cost.
Abstract:
A method for manufacturing a light-emitting device is provided, including: providing a base, which includes a heat dissipation layer made of graphene; forming a buffer layer on the heat dissipation layer; and forming a light emission unit on the buffer layer. The light-emitting device so made includes a graphene-made heat dissipation layer that effectively dissipates away heat emitting from an emissive layer of the light emission unit so as to effectively reduce the temperature of the light-emitting device and extend the service life of the light-emitting device. Particularly, when the light-emitting device is a light-emitting diode, the emissive layer thereof is a quantum dot emissive layer for effectively improving color saturation of the light-emitting diode and enhancing color displaying performance of the light-emitting diode.
Abstract:
The present disclosure relates to a backlight source based on grapheme including a lower substrate, an upper substrate and a first insulation layer, multiple gate electrodes, a second insulation layer, multiple graphene quantum dot layers, and multiple groups of source electrodes and drain electrodes sequentially disposed there between. The multiple graphene quantum dot layers are separately disposed on the second insulation layer, and one source electrode and one drain electrode are disposed on each graphene quantum dot layer. A field color sequential LCD and a driving method are also disclosed. Through controlling the gate voltage of the backlight source based on graphene, the backlight source has a precise region light control ability to avoid a color gamut reduction phenomenon because of the color crosstalk.
Abstract:
An ultra-thin liquid crystal display including: a liquid crystal panel, a backlight module disposed opposite to the liquid crystal panel, and a metal frame for fixedly coupling the liquid crystal panel and the backlight module. The liquid crystal panel includes: a color filter substrate disposed opposite to the backlight module, an array substrate positioned between the backlight module and the color filter substrate and disposed by box with the color filter substrate, and a chip-on-film (COF), wherein the array substrate includes an extension part formed by extending one side thereof, wherein a screen electrode is formed on the extension part, an electrode on the COF is bonded with the screen electrode, and the COF is attached to the metal frame. The ultra-thin LCD achieves the thinning design while having an advantage of high heat dissipation efficiency.
Abstract:
A liquid crystal panel fixing assembly and a display device are disclosed. The assembly includes a frame structure having a rectangular shape and multiple position-limiting blocks. The frame structure is used for supporting a liquid crystal panel. Two adjacent edges of the frame structure respectively provide with multiple fixing portions having different distances relative to an inner side surface of the frame structure. The multiple position-limiting blocks are selectively fixed at a group of the fixing portions in order to form a placement region for different display panels. Using the frame structure to support the liquid crystal panel, and through adjusting locations of the position-limiting blocks in order to fix liquid crystal panels having different sizes, the cost for developing different backlight modules for different liquid crystal panels is reduced, and the compatibility of a backlight module is increased.
Abstract:
A liquid crystal panel packaging case, including a frame body and a base plate, wherein an inside of the frame body is provided with a stepped part, and at least two opposite ends of the base plate are lapped on an upper surface of the stepped part. The packaging case the frame body and the base plate of the liquid crystal panel packaging case individually manufactured in combination. The base plate is used by being lapped on the step of the frame body. The frame body and the base plate in different packaging bases are interchangeable, so that only the damaged structure needs to be replaced when only a part is damaged, which decreases repair cost.