Abstract:
The present invention proposes a back light module. The backlight module includes a back plate, a light guiding plate, and an optical film. The back plate includes a bottom plate and a side plate positioned on the bottom plate. The side plate has a concave part on the inner surface. The light guiding plate and the optical film are positioned within the light guiding plate. A non-light-inputting side of the light guiding plate is inserted into the concave part of the side plate, and the side plate is arranged to surround the light guiding plate and the optical film. The present invention also proposes a display device.
Abstract:
A backlight module and a liquid crystal device (LCD) are disclosed. The backlight module includes a light guiding plate, a plastic frame adjacent to a lateral side of the light guiding plate, and a reflective sheet. The reflective sheet includes a first portion, a second portion, and a third portion. The first portion of the reflective sheet is arranged below a bottom of the light guiding plate and/or a bottom of the plastic frame, the second portion of the reflective sheet adheres to a lateral side of the plastic frame, and the lateral side faces away from the light guiding plate, and the third portion of the reflective sheet adheres to a top surface of the plastic frame. With such configuration, the reflective sheet may be stably fixed on the plastic frame to prevent the reflective sheet from being detached.
Abstract:
Disclosed is a connect device, having a substrate, a connect electrode, a first to third pairs of electrodes, and the connect electrode, the first to third pairs of electrodes are paved on the substrate, and the first to third pairs of electrodes have anodes and cathodes, and the anodes of the first to third pairs of electrodes are respectively employed to connect a power supply, the anodes of the first, second organic light emitting elements, and the cathodes of the first to third pairs of electrodes are respectively employed to connect the power supply, the cathodes of the first, second organic light emitting elements for respectively and simultaneously supplying power to the first, second organic light emitting elements with the power supply. The application satisfies brightness demands to the light devices without increasing additional power consumption. An organic light emitting device is further provided.
Abstract:
A liquid crystal display and a double sided tape therefor are provided. The liquid crystal display comprises: a liquid crystal panel; a backlight unit comprising a back plate, a set of optical films, and a frame; and a double sided tape comprising a first surface coated with a first adhesive and connected to the liquid crystal panel through the first adhesive, and a second surface coated with a second adhesive and connected to the back plate and the set of optical films respectively through the second adhesive. The adhesion strength of the first adhesive on the liquid crystal panel is lower than that of the second adhesive on the set of optical films. After the backlight unit is separated from the liquid crystal panel, the double sided tape can be left on the optical films and the frame. Therefore, the position relationship among the films within the set of optical films would not be damaged, ensuring that the reassembled liquid crystal display can work normally.
Abstract:
A composite back cover with adjustable curvature used in a liquid crystal display with adjustable curvature is provided. The composite back cover includes a fixing plate; a back cover having a central portion secured to the fixing plate; and at least two extensible control devices disposed between the back cover and the fixing plate and respectively arranged at two sides of the central portion. The extensible control devices are stretched or shortened to adjust a distance between the back cover and the fixing plate so as to adjust curvature of the back cover. A backlight module is also provided. The distance between the back cover and the fixing plate is adjusted by stretching or shortening the extensible control devices so as to adjust the curvature of the liquid crystal display.
Abstract:
The present invention discloses an assembling structure of light emitting components including a substrate, a light emitting component, and at least one connecting part. The light emitting component is arranged on the substrate, the light emitting component includes a first pin and a second pin embedded within the substrate, and at least one connecting part is embedded within the substrate. The connecting part electrically connects to the substrate. The connecting part connects the first pin and the second pin. Compared to the conventional solution, wherein the pins of the light emitting component and the lead are configured outside of the substrate, the light beams are prevented from being blocked by the components. Not only the light beams may be more uniform, but also the light beams are prevented from being absorbed by the lead.
Abstract:
A light guide plate includes a light exit surface, a reflection surface opposite to the light exit surface, and at least one light incidence surface connecting to the light exit surface and the reflection surface. The reflection surface includes a plurality of minute projection structures projecting toward interior of the light guide plate. Each of the minute projection structures includes at least two side faces coated with a high reflectivity material. The at least two high reflectivity material coated side faces form at least one included angle pointing toward the at least one light incidence surface. With the distance of the minute projection structure from the closest light source getting shorter, the at least one included angle formed thereby is getting smaller.
Abstract:
A light guide plate includes a light exit surface, a reflection surface opposite to the light exit surface, at least one light incidence surface connecting to the light exit surface and the reflection surface, and two side surfaces. The reflection surface includes first and second minute projection structures projecting toward interior of the light guide plate, the second minute projection structures being arranged between the first minute projection structures and the two side surfaces of the light guide plate. The first minute projection structures each include at least two side faces coated with a high reflectivity material and forming at least one included angle pointing toward the at least one light incidence surface. The second minute projection structures each include a side face coated with a high reflectivity material and defining two angles, which are less than 90°, with respect to a light incidence surface and a side surface.
Abstract:
Disclosed are a light-emitting diode and a method for manufacturing a light-emitting diode. The method includes: a base layer; a circuit layer formed on the base layer; a light-emitting chip formed on the circuit layer; electrode pads formed on the base layer and electrically connected to the light-emitting chip so that the electrode pads and the circuit layer and the light-emitting chip are spaced from each other by first spacing distances and the electrode pads and the circuit layer and the light-emitting chip define therebetween first grooves, where an altitude of the electrode pad is equal to an altitude of the light-emitting chip; and a phosphor powder contained package layer formed on the light-emitting chip and the electrode pads and filled into the first grooves between the electrode pads and the circuit layer to form a uniform dome shape.
Abstract:
A luminous device and a liquid crystal display device are provided. In the luminous device, a difference value between a first distance and a second distance is less than a preset value. The first distance is a distance between a first luminous side surface of a luminous element and a first wavelength conversion side surface of a wavelength conversion unit or a distance between a second luminous side surface and a second wavelength conversion side surface. The second distance is a distance between a luminous top surface of the luminous element and a wavelength conversion top surface of the wavelength conversion unit.