Abstract: A removable attachment structure includes a movable module and a latching module. The movable module includes a first receiving groove. The latching module includes a first mounting portion and a latching subassembly on the first mounting portion. One end of the latching subassembly and the first mounting portion defines an entrance, the entrance allows the movable module to enter into or come out of the latching module. For latching, the movable module vertically enters into the entrance and is driven to the latching subassembly until the latching subassembly is completely received in the first receiving groove. For unlatching, the movable module is driven in opposite direction until the latching subassembly is disengaged from the latching part, thereby disengaging the movable module from the entrance.

Abstract: A fast-disassemblable display device includes a middle frame, a connecting plate, a backboard, an optical component, a display panel, and a bottommost frame. The middle frame includes a topmost frame, a left frame, and a right frame cooperatively defining a receiving space. The middle frame defines a sliding groove at inner surfaces thereof. The connecting plate is fixedly received in the sliding groove. The backboard is received in the sliding groove, and can slide into the receiving space through the sliding groove. The optical component is connected to the connecting plate. The display panel is connected to the middle frame, and positioned at a side of the optical component facing away from the backboard. The bottommost frame is connected to end portions of the left frame and the right frame facing away from the topmost frame.

Abstract: A back-light module includes a back board. The back board includes a substrate and a plurality of frame monomers. Each frame monomer comprises four lateral ribs, every two adjacent lateral ribs are perpendicularly connected with each other. The frame monomers are detachably assembled to each other to form a height adjustable back frame, and the height adjustable back frame is assembled with the substrate to form a height adjustable light-mixing chamber.

Abstract: A thin-profile television includes a backplane, a display unit, a frame, and a driving printed circuit board. The backplane includes a flat first surface. The backplane and the frame, defining a first receiving space, receive the display unit and the driving printed circuit board. The frame includes a first front frame portion and a second front frame portion, the first front frame portion and the second front frame portion faces away from the backplane. The second front frame portion is convex relative to the first front frame portion. The driving printed circuit board is positioned between the backplane and the side frame portion and adjacent to the side frame portion.

Abstract: An ultra-thin television includes a backlight element, a base board and a radiating element. The backlight element includes at least one light source. The base board is positioned on a side of the backlight element. The base board includes a main body defining at least one radiating space and a metal plate covering the main body. Each of the at least one radiating space extends to the metal plate. The radiating element includes a first portion positioned on one side of the at least one light source and a second portion connecting to the first portion. The second portion corresponds to and is received in the at least one radiating space to connect to the metal plate.

Abstract: An adhesive-free frameless display device comprises a backplane, an optical element secured to a surface of the backplane, a display panel secured to a side of the optical element away from the backplane, and a fixing assembly. The fixing assembly comprises a middle frame, a combining member removably secured to the middle frame, and a fixing member removably secured to the middle frame. The fixing member fixes the backplane, the display panel, and the combining member together. An electronic device using the frameless display device is also provided.

Abstract: An ultra-thin television includes a backlight element, a base board and a radiating element. The backlight element includes at least one light source. The base board is positioned on a side of the backlight element. The base board includes a main body defining at least one radiating space and a metal plate covering the main body. Each of the at least one radiating space extends to the metal plate. The radiating element includes a first portion positioned on one side of the at least one light source and a second portion connecting to the first portion. The second portion corresponds to and is received in the at least one radiating space to connect to the metal plate.

Abstract: An ultra-thin television includes a wall holder and a liquid crystal display screen. The wall holder includes a support structure and a plurality of accessories. The support structure includes a front frame having a decorative front surface, the front frame defines a display screen receiving space. The support structure defines an accessory receiving cavity in air communication with the display screen receiving space. The accessories are located in the receiving cavity. The liquid crystal display screen is received in the display screen receiving space and electrically connects to the accessories through a connector.

Abstract: A back-light module includes a back board. The back board includes a substrate and a plurality of frame monomers. Each frame monomer comprises four lateral ribs, every two adjacent lateral ribs are perpendicularly connected with each other. The frame monomers are detachably assembled to each other to form a height adjustable back frame, and the height adjustable back frame is assembled with the substrate to form a height adjustable light-mixing chamber.

Abstract: An adhesive-free frameless display device comprises a backplane, an optical element secured to a surface of the backplane, a display panel secured to a side of the optical element away from the backplane, and a fixing assembly. The fixing assembly comprises a middle frame, a combining member removably secured to the middle frame, and a fixing member removably secured to the middle frame. The fixing member fixes the backplane, the display panel, and the combining member together. An electronic device using the frameless display device is also provided.

Abstract: A thin-profile television includes a backplane, a display unit, a frame, and a driving printed circuit board. The backplane includes a flat first surface. The backplane and the frame, defining a first receiving space, receive the display unit and the driving printed circuit board. The frame includes a first front frame portion and a second front frame portion, the first front frame portion and the second front frame portion faces away from the backplane. The second front frame portion is convex relative to the first front frame portion. The driving printed circuit board is positioned between the backplane and the side frame portion and adjacent to the side frame portion.

Abstract: A liquid crystal display device thermally insulated from light source heat, includes a display panel, a backlight module positioned on the display panel, a bezel positioned around the backlight module, and a thermal insulating element mounted on the bezel. The backlight module includes a light guiding plate and at least one light source located at a side of the light guiding plate. The thermal insulating element is positioned between the at least one light source and the bezel. A sealed space is formed between the thermal insulating element and the bezel. The thermal insulating element and the sealed vacuum space are configured to thermally insulate heat generated by the at least one light source and prevent heat from transferring to the bezel and display panel.

Abstract: A backlight module includes a light guiding plate having a side surface, at least one light source facing towards the light guiding plate, and a thermal insulation element. The thermal insulation element is configured to prevent heat from the at least one light source from transferring to the bezel and display panel. The thermal insulation element is coupled to the side surface. The at least one light source is enclosed by the light guiding plate and the thermal insulation element.

Abstract: A liquid crystal display device thermally insulated from light source heat, includes a display panel, a backlight module positioned on the display panel, a bezel positioned around the backlight module, and a thermal insulating element mounted on the bezel. The backlight module includes a light guiding plate and at least one light source located at a side of the light guiding plate. The thermal insulating element is positioned between the at least one light source and the bezel. A sealed space is formed between the thermal insulating element and the bezel. The thermal insulating element and the sealed vacuum space are configured to thermally insulate heat generated by the at least one light source and prevent heat from transferring to the bezel and display panel.

Abstract: A backlight module includes a light guiding plate having a side surface, at least one light source facing towards the light guiding plate, and a thermal insulation element. The thermal insulation element is configured to prevent heat from the at least one light source from transferring to the bezel and display panel. The thermal insulation element is coupled to the side surface. The at least one light source is enclosed by the light guiding plate and the thermal insulation element.

Abstract: A light guiding device to compensate insufficient lighting in a light guide plate's corner areas is provided. The light guiding device is positioned on the inner side of the lamp reflector neighboring to the electrodes at the ends of the lamp. The light guiding device has a reflection surface which reflects and directs lights toward the dim corner areas of the light guide plate, compensating the lighting and thereby reducing these dim areas.

Abstract: A light guiding device to compensate insufficient lighting in a light guide plate's corner areas is provided. The light guiding device is positioned on the inner side of the lamp reflector neighboring to the electrodes at the ends of the lamp. The light guiding device has a reflection surface which reflects and directs lights toward the dim corner areas of the light guide plate, compensating the lighting and thereby reducing these dim areas.