Abstract:
There is provided a technique in which when a display apparatus is assembled, workability of an operation for fixing a printed circuit board disposed at an outer peripheral part of a display panel to a support member can be improved. The display apparatus includes a display panel, a flexible printed wiring board connected to the display panel, a printed circuit board connected to the flexible printed wiring board, and a support member to support the display panel and the printed circuit board. The printed circuit board is supported at a side surface of the support member by bending the flexible printed wiring board, the support member includes, at the surface for supporting the printed circuit board, a first support part to support a second end side of the printed circuit board opposite to a first end to which the flexible printed wiring board is connected and a projection-like second support part provided outside an area where the printed circuit board is supported.
Abstract:
Disclosed is a liquid crystal display apparatus in which a liquid crystal display module and cases are tightly combined. At least one protuberance formed on a top chassis of the liquid crystal display module combines at least one fixing portion formed on a portion of a rear case corresponding to the at least one protuberance. Also, a fixing protuberance formed on a portion of a front case is inserted into between the liquid crystal display module and the rear case, thereby preventing the liquid crystal display module from being moved. Therefore, the liquid crystal display module and the cases are tightly combined, and productivity of the liquid crystal display apparatus can increase by reducing the number of parts demanded for fabrication of the liquid crystal display module and the cases.
Abstract:
Disclosed is a liquid crystal display (LCD) device in which a movement of a light guide plate received in a mold frame can be minimized. A light guide plate has catching jaws and projections. The catching jaws are formed by cutting at least one corner of an end portion of the light guide plate receiving the light from the lamp unit. The projections extend outwardly from sidewalls of the catching jaws, which respectively have a thinner thickness than the catching jaws. A mold frame receives the light guide plate and the lamp unit and has catching bosses and recesses. The catching bosses are formed at positions corresponding to the catching jaws on a bottom surface of the mold frame to engage with the catching jaws to fix the light guide plate in the mold frame. The recesses are formed at respective positions corresponding to the projections at sidewalls of the mold frame to receive the projections. Therefore, even if an exterior impact is applied to the LCD device, the catching bosses of the mold frame are respectively and rigidly engaged with the catching jaws to prevent the light guide plate from moving towards the lamp. Even though the exterior impact is applied to sidewalls of the mold frame, the projections and the catching jaws can be prevented from being damaged because the projections are respectively received in the recesses of the mold frame.
Abstract:
A display device includes a reflector having a flat bottom surface. A leg portion of a support member which supports a light diffusion plate is mounted on the reflector in an erected manner in a state that the leg portion is allowed to pass through a through hole formed in the reflector and a through hole formed in a housing. Further, in fixing a printed circuit board on a back surface side of the housing, when the leg portion is present in the inside of a region of the back surface side of the housing to which the printed circuit board is fixed, a through hole is formed in a region of the printed circuit board which is overlapped to the leg portion, and the leg portion is allowed to pass through the through hole.
Abstract:
An electrical device is proposed, in particular an LCD display, which comprises a housing base, onto which a rear panel can be mounted. Measures are provided, which thereby allow a simple releasable locking of the rear panel. The assembly time of the rear panel is shortened both during production and also during onsite services.
Abstract:
A backlight assembly includes a receiving container receiving a light guide plate and a lamp and a fixing member holding the light guide plate. The fixing member supports an incident face of the light guide plate, into which a light emitted from the lamp is incident, thereby preventing movement of the light guide plate towards the lamp. Thus, the backlight assembly may fix the light guide plate to the receiving container without reforming the light guide plate, so that the backlight assembly may supply light having uniform brightness to a liquid crystal display panel to improve its display characteristics.
Abstract:
In a receiving container, a backlight assembly having the receiving container, and a display device having the backlight assembly, the receiving container includes a bottom plate, sidewalls, and optical support members. The sidewalls extend from an edge of the bottom plate. The sidewalls are connected to each other to define a receiving recess therebetween. The optical support members protrude from a front face of the bottom plate to support optical units thereon. The optical support members are integrally formed with the bottom plate. The bottom mold is integrally formed with lamp supporters and/or dispersion plate support members. Thus, cost required for manufacturing the bottom mold is relatively low. In addition, time required for manufacturing the bottom mold is relatively short. Furthermore, a light leakage is prevented between the bottom mold and the optical support members.
Abstract:
A diffusion plate (20) includes at least two diffusion units (21), each diffusion unit including at least one connecting portion (23). The connecting portions (23a, 23b) of each two adjacent diffusion units mate with each other, thereby connecting all the diffusion units together. The number of diffusion units may be increased or decreased according to the size of a liquid crystal display to be produced. This eliminates the need to alter the production means for differently sized backlight modules, thereby reducing costs and increasing production efficiency. In another embodiment, a diffusion plate (50) includes at least two diffusion units (51). Each diffusion unit includes at least one connection protrusion (53a). At least one interconnecting member (53) is disposed between each two adjacent diffusion units. The interconnecting member and the connecting protrusions mate with each other, thereby connecting all the diffusion units together. A related backlight module (500) is also provided.
Abstract:
An LCD module connecting mechanism. An LCD module connecting mechanism for an electronic device comprising an arm disposed in the electronic device and a frame disposed on a side of the LCD module. The arm has a first joining portion disposed on a side thereof. The frame has a second joining portion on a side thereof. The LCD module connects the electronic device by joining the first joining portion and the second joining portion.
Abstract:
A display device includes a display panel displaying an image, a backlight assembly providing the display panel with light, a receiving container, and a light-blocking member. The backlight assembly includes a light source, an optical sheet disposed over the light source and a light-reflecting sheet disposed under the light source. The receiving container includes a bottom plate having an opening portion, and defines a receiving space for receiving the display panel and the backlight assembly. The light-blocking member is disposed at a backside surface of the light-reflecting sheet. Therefore, heat generated from the light source is easily dissipated through the opening to enhance display quality.