Abstract:
A liquid crystal module is disclosed. The liquid crystal module includes a light source, a light guiding device, and a coupling device. The light guiding device is arranged at a light emitting side of the light source and is spaced apart from the light guiding device by a distance. The coupling device is installed between the light source and the light guiding device for controlling a coupling distance therebetween. The coupling device keeps the coupling distance between a light guiding plate and a light source to remain a predetermined value. In this way, the coupling efficiency of the liquid crystal module is not affected by the difference of LEDs or heat inflation so as to enhance the coupling efficiency.
Abstract:
The present invention provides a direct backlight module and a liquid crystal display module using the backlight module. The backlight module includes a backplane, a diffusion platen arranged inside the backplane, and backlight sources mounted to the backplane and located under the diffusion plate. The backplane includes a bottom board and side boards connected to the bottom board. The bottom board forms receiving openings. The backlight sources are mounted to a side of the bottom board that is distant from the diffusion plate to correspond to the receiving openings. With the backplane having a bottom board that includes a circumferential frame and braces collectively defining receiving openings and backlight sources being mounted to a side of the bottom board that is distant from a diffusion plate to correspond to the receiving openings, it only need to remove the backlight sources in maintaining or replacing the backlight sources.
Abstract:
The present invention provides a jointed curved liquid crystal display device, which includes: at least two liquid crystal display units. The at least two liquid crystal display units includes: a first liquid crystal display unit (2) and a second liquid crystal display unit (4) connected to one edge of the first liquid crystal display unit (2) to be rotatable about one axis. The first and second liquid crystal display units (2, 4) receive a first cushion section (8) mounted therebetween. The axis is arranged to be opposite to the first cushion section (8). The at least two liquid crystal display units further includes a third liquid crystal display unit (6) connected to an opposite edge of the first liquid crystal display unit (2) to be rotatable about another axis. The first and third liquid crystal display units (2, 6) receive a second cushion section (10) mounted therebetween. Said another axis is arranged to be opposite to the second cushion section (10). The jointed curved liquid crystal display device can display one or multiple images according to the needs of users and allows for adjustment of curve angle thereof as desired.
Abstract:
The present disclosure relates to a backlight module, including a backlight frame and a light guide plate placed inside the backlight frame, wherein a light-emitting element is provided at the inner side of a side wall of the backlight frame, a first reflective sheet is provided at a lower location under the light guide plate along the vertical direction, and a second reflective sheet is provided at a lower location under the light-emitting element along the vertical direction, the second reflective sheet being extended towards the inside of the backlight frame to a lower location under the light guide plate along the vertical direction. Through providing the second reflective sheet located under the light-emitting element and extending to a lower location under the light guide plate, the light scattered out under the light-emitting element can be guided into the light guide plate, thus effectively enhancing the efficiency of incident light guided into the light guide plate from the light-emitting element.
Abstract:
A chip heat dissipation structure and a liquid crystal display having thereof are provided. The chip heat dissipation structure includes a metal heat dissipation member contacted with a chip. The metal heat dissipation member is connected to a metal protection cover of a printed circuit board. The metal heat dissipation member is perpendicular to the metal protection cover. The present invention also relates to a liquid crystal display. The chip heat dissipation structure and a liquid crystal display having thereof of the present invention have a good heat dissipation effect.
Abstract:
The present invention provides a liquid crystal display device, which includes a backlight module, a backlight module, a mold frame arranged on the backlight module, a liquid crystal display panel arranged on the mold frame, and a front enclosure arranged on the liquid crystal display panel. The backlight module includes a backplane, a backlight source mounted in the backplane, and a light guide plate received in the backplane. The backplane is made of a conductive material and has a bottom board and side boards connected to the bottom board. At least one of the side boards forms protrusions projecting outward from an outside surface thereof. The front enclosure has an inside surface opposing said one of the side boards and including a conductive film mounted thereto and having an end in contact engagement with the liquid crystal display panel and an opposite end in contact engagement with the protrusions.
Abstract:
The present invention provides a direct backlight module and a liquid crystal display module using the backlight module. The backlight module includes a backplane, a diffusion platen arranged inside the backplane, and backlight sources mounted to the backplane and located under the diffusion plate. The backplane includes a bottom board and side boards connected to the bottom board. The bottom board forms receiving openings. The backlight sources are mounted to a side of the bottom board that is distant from the diffusion plate to correspond to the receiving openings. With the backplane having a bottom board that includes a circumferential frame and braces collectively defining receiving openings and backlight sources being mounted to a side of the bottom board that is distant from a diffusion plate to correspond to the receiving openings, it only need to remove the backlight sources in maintaining or replacing the backlight sources.
Abstract:
The present invention provides a liquid crystal display device, which includes a backlight module, a mold frame arranged on the backlight module, a liquid crystal display panel arranged on the mold frame, a front enclosure made of a plastic material and arranged on the liquid crystal display panel, and a conductor piece mounted on the front enclosure. The backlight module includes a backplane made of a conductive materiel, a backlight source mounted in the backplane, and an optic film assembly received in the backplane. The conductor piece includes a first conductive section to which a second conductive section is connected. The first conductive section is arranged between the front enclosure and the liquid crystal display panel to engage the liquid crystal display panel. A bolt is received through the second conductive section of the conductor piece, the front enclosure, and the mold frame to engage and fix to the backplane.
Abstract:
The present invention provides a liquid crystal display device, which includes a backlight module, a backlight module, a mold frame arranged on the backlight module, a liquid crystal display panel arranged on the mold frame, and a front enclosure arranged on the liquid crystal display panel. The backlight module includes a backplane, a backlight source mounted in the backplane, and a light guide plate received in the backplane. The backplane is made of a conductive material and has a bottom board and side boards connected to the bottom board. At least one of the side boards forms protrusions projecting outward from an outside surface thereof. The front enclosure has an inside surface opposing said one of the side boards and including a conductive film mounted thereto and having an end in contact engagement with the liquid crystal display panel and an opposite end in contact engagement with the protrusions.
Abstract:
A full lamination structure for a liquid crystal module comprises a housing, a liquid crystal panel overlapping on the housing, a light guide plate disposed in the housing, a plurality of optical films disposed in the housing, the plurality of optical films stacked on the light guide plate; and a buffer layer and an optical transparent adhesive disposed between the liquid crystal panel and the upmost optical film. This structure not only effectively reduces the light loss, but also increases the light utilization so that the imaging of the liquid crystal panel is clearer.