Abstract:
The invention provides an LCD device, a manufacturing method thereof, and an optical film. The LCD device includes optical films, and an LCD panel; an edge(s) of the optical film is provided with a folded edge(s), and the LCD panel is arranged on the folding edges. In the invention, because the folded edges are arranged on the optical film of the LCD device, and the LCD panel is arranged on the folding edges, no interval is reserved between the edges of the LCD panel and the optical films, thereby preventing the LCD device from generating light leakage because the LCD panel is supported by the separated middle frames. In addition, because no interval is reserved between the edges of the LCD panel and the folded edges for support, the whole edges of the LCD panel are continuously supported instead of only supporting the four corners by the separated middle frames, thereby increasing the compression strength of the LCD panel, effectively preventing the black matrix or other structure(s) from moving because of oversize deformation when being stressed, and preventing light leakage and water ripple phenomena.
Abstract:
The present invention discloses a backlight module and a liquid crystal display (LCD). A light out surface of a light guide plate is provided with a plurality of micro structures. Each of the micro structures comprises a first light out surface and a second light out surface which are along the longitude direction and correspondingly been the inclined plane to each other. Besides, along a light in direction, at least one of the first oblique angle and the second oblique angle is changed with the increasing of distance from the light source, so that the lights can be uniformly emitted out through the micro structures.
Abstract:
The present invention provides a light source assembly, which comprises a light tube, a conductive nesting element, a first insulative insert and a second insulative insert. A nesting body of the conductive nesting element is fitted over and fixed to an end of a tube body of the light tube and is electrically connected to a pin of the light tube, and a flap of the conductive nesting element is disposed on the nesting body and extends in a direction lateral to the light tube. The first insulative insert is formed with a first through-hole and a blind hole. The nesting body is inserted through the first through-hole, and the flap is disposed and supported in the blind hole from a side away from the light tube. The second insulative insert comprises an insulative body and a conductive elastic piece disposed inside the insulative body. Both ends of the conductive elastic piece are exposed from two opposite sides of the insulative body, and one end of the conductive elastic piece abuts against the flap located in the blind hole. The present invention further provides a liquid crystal display (LCD). With the above arrangement, damage to the light tube is prevented when a lead is welded onto the pin of the light tube, so the light source assembly and the LCD of the present invention can save the cost.
Abstract:
A backlight module includes a backboard, a light guide board arranged inside the backboard, and a side reflection plate arranged inside the backboard. The backboard includes a bottom plate and a plurality of side plates connected to the bottom plate. The light guide board includes a bottom surface facing the bottom plate, a top surface distant from the bottom plate, and a plurality of side surfaces connecting between the bottom surface and the top surface. The plurality of side surfaces comprises a plurality of passive light exit surfaces. The side reflection plate is made of an elastic material. The side reflection plate is positioned against both one of the passive light exit surfaces of the light guide board and one of the side plates of the backboard that opposes said one of the passive light exit surfaces.
Abstract:
The present invention provides a backlight module, which includes a backboard, a light bar mounted on the backboard, and a thermo-sensitive heat conduction material interposed between the backboard and the light bar. The thermo-sensitive heat conduction material functions to automatically adjust thermal conductivity coefficient with variation of temperature so that different portions of the light bar have different thermal conductivity coefficients in order to control the temperature of the whole light bar in a predetermined range to ensure desired performance of thermal conduction and further ensuring temperature uniformity of the whole backlight module and preventing the occurrence of luminance lowering of the whole backlight module due to excessive local high temperature.
Abstract:
A positioning hook of an optical film of a backlight module, wherein the backlight module has a frame, and the optical film is disposed on an inner side of the frame. The positioning hook includes a first hook portion and a second hook portion corresponding with each other. The first hook portion is disposed at a first end of the positioning hook for penetrating through and hooking on an edge of the optical film. The second hook portion is disposed at a second end of the positioning hook opposite to the first end for hooking on an edge of the frame, so that the optical film is disposed and fixed in the frame.
Abstract:
A method of fabricating MOTFTs on transparent substrates includes positioning opaque gate metal on the front surface of a transparent substrate and depositing transparent gate dielectric, transparent metal oxide semiconductor material, and passivation material on the gate metal and the surrounding area. Portions of the passivation material are exposed from the rear surface of the substrate. Exposed portions are removed to define a channel area overlying the gate area. A relatively thick conductive metal material is selectively deposited on the exposed areas of the semiconductor material to form thick metal source/drain contacts. The selective deposition includes either plating or printing and processing a metal paste.
Abstract:
A method of fabricating metal oxide TFTs on transparent substrates includes the steps of positioning an opaque gate metal area on the front surface of the substrate, depositing transparent gate dielectric and transparent metal oxide semiconductor layers overlying the gate metal and a surrounding area, depositing transparent passivation material on the semiconductor material, depositing photoresist on the passivation material, exposing and developing the photoresist to remove exposed portions, etching the passivation material to leave a passivation area defining a channel area, depositing transparent conductive material over the passivation area, depositing photoresist over the conductive material, exposing and developing the photoresist to remove unexposed portions, and etching the conductive material to leave source and drain areas on opposed sides of the channel area.
Abstract:
A method of fabricating MOTFTs on transparent substrates by positioning opaque gate metal on the substrate front surface and depositing gate dielectric material overlying the gate metal and a surrounding area and metal oxide semiconductor material on the dielectric material. Depositing selectively removable etch stop material on the semiconductor material and photoresist on the etch stop material to define an isolation area in the semiconductor material. Removing uncovered portions of the etch stop. Exposing the photoresist from the substrate rear surface using the gate metal as a mask and removing exposed portions leaving the etch stop material overlying the gate metal covered. Etching the semiconductor material to isolate the TFT. Selectively etching the etch stop layer to leave a portion overlying the gate metal defining a channel area. Depositing and patterning conductive material to form source and drain areas on opposed sides of the channel area.
Abstract:
An active matrix incorporated in a color display device includes an array of pixels arranged in n rows and m columns, each pixel having x elements including at least a red, a green, and a blue element. A plurality of m data lines, a different one of the plurality of m data lines being coupled one each to each column of pixels and to each element in each pixel in the column of pixels. A plurality of xn scan lines is provided, the xn scan lines being divided into n groups of x scan lines each. A different group of three xn scan lines is coupled to each row of the n rows of pixels and each of the different x scan lines in each group is coupled to a different one of the x elements.