Abstract:
Disclosed is a packaging device for a liquid crystal panel, including a first main body having a bottom and a plurality of sidewalls connected to sides of bottom. The sidewalls define at least one opening. At least one second main body has a bottom and sidewalls connected to the bottom and define an opening that is movably received in the at least one opening of the first main body such that the packaging device is expandable by moving the second main body in a direction away from the first main body.
Abstract:
Disclosed is a method for manufacturing an LED light bar and an LED light bar thereof. The method includes: providing a metal substrate and a plurality of LED lights; forming a graphene layer on the metal substrate in such a way that the graphene layer includes hollow sections formed to correspond to the LED lights; mounting the LED lights to the metal substrate in the hollow sections; and forming silicone layers in the hollow sections. The LED light bar includes a graphene layer formed on a metal substrate and silicone layers are provided for planarization and heat transfer so as to effectively enhance heat dissipation performance of the LED light bar and extend lifespan of the LED light bar.
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:
A back frame including at least two main pieces is disclosed. The adjacent main pieces are assembled via assembly sections, and a plurality of anchor points are arranged on different locations of each of the assembly sections. The size of the back frame is variably configured by assembling the adjacent main pieces through different anchor points. The main pieces with anchor points on different locations may be manufactured by the same mold. The main pieces are assembled to form back frame with different sizes so as to reduce the mold cost and the manufacturing cost.
Abstract:
The present invention provides a liquid crystal display device, which includes a backlight module, a mold frame mounted on the backlight module, a liquid crystal display panel mounted on the mold frame, and a bezel mounted on the liquid crystal display panel. The backlight module includes a backplane, a light bar mounted to the backplane, a graphite pad arranged between the backplane and the light bar. The light bar includes a metal core printed circuit board that is set in the form of an inverted U-shape and a plurality of LED lights mounted to and electrically connected with the metal core printed circuit board. The metal core printed circuit board is mounted to the backplane so as to mount the light bar to the backplane.
Abstract:
The present invention provides a backlight module, containing an edge-lit backlight source; a light guide plate having a light incident surface and a light emitting surface where the light incident surface faces directly towards the backlight source; an optical film set positioned on a top side of the light guide plate facing directly towards the light emitting surface of the light guide plate; a reflection plate on a bottom side of the light guide plate; and a thermal conductive layer on a bottom side of the reflection plate conducting heat produced from the backlight source at least to the center of the reflection plate. The backlight module raises the temperature in the center of the panel, thereby preventing the cross talk resulted from having lower temperature in the center of the panel. There is no significant change to the existing backlight modules and therefore the cost is low.
Abstract:
An edge type backlight module for preventing light leakage is disclosed. The backlight module includes an aluminum extrusion, an edge type light source, an optical film set, and a plastic frame. The an adhesive bar is arranged at least partly in a space between the aluminum extrusion and the plastic frame to fix the aluminum extrusion and the plastic frame and to fill a gap between the aluminum extrusion and the plastic frame. A liquid crystal display with the above backlight module is also disclosed. With the configuration, the aluminum extrusion and the plastic frame may be easily fixed, and the light leakage may be avoided.
Abstract:
The present invention provides a liquid crystal module, which includes an edge-lit backlight source, a light-guiding plate, a backplane, a mold frame and a front frame; the light-guiding plate having an incident surface and a light-emitting surface connected to the incident surface; the edge-lit backlight source facing the incident surface; wherein a heat-dissipation layer being disposed on an outer surface of the front frame near the edge-lit backlight source. The present invention further provides a liquid crystal display device. The present invention disposes a heat-dissipation layer formed by radiation heat-dissipation material on the outer surface of the front frame near the edge-lit backlight source and uses the radiation heat-dissipation to greatly enhance the heat-dissipation capability of the front frame and improve the overall heat-dissipation result of the liquid crystal module and the liquid crystal display device.