Abstract: A liquid crystal display device proofed against light leaking from a join between backlight module and display panel also has a camera. The display device defines a display area surrounding a light transmission area which allows external light to enter the camera. The backlight module defines a mounting hole corresponding to the light transmission area, the camera being in the mounting hole. Black foam is arranged at the join of the display panel and the backlight module, the black foam has light absorbing properties.

Abstract: A backlight module having better heat dissipation, includes a backboard, a frame coupled to a peripheral area of the backboard, at least one light source, and a thermally conductive layer located on the backboard. The backboard is made of a thermally conductive material. The at least one light source is embedded in the thermally conductive layer and in direct contact with the thermally conductive layer which removes heat as it is generated by the light source.

Abstract: A display apparatus which is not subject to light leakage from a cut edge of a quantum dot layer includes a display panel and a backlighting module. The backlight module includes light source, light guide plate, and quantum dot enhancement layer. The quantum dot enhancement layer has functional and invalidation portions. The functional portion converts light from the light guide plate into predetermined wavelengths. The invalidation portion is formed in the non-display region, and is unable to convert light from the light guide plate into predetermined wavelengths. A distance between a side surface of the invalidation portion and a side surface of the main display region is larger than or equal to a predetermined distance. The effect of the predetermined distance is to prevent the light leaking or transmitted from the invalidation portion from entering the display region at normal viewing angles.

Abstract: A display apparatus utilizing all light output by a light source also includes a display panel with a shield portion, a light guide plate, and a quantum dot enhancement layer. The display panel includes a display portion and a shield portion. The light guide plate is parallel with the display panel and guides light emitted by the light source to the display panel. The quantum dot enhancement layer converts a wavelength of the light and the shield portion is configured to reflect stray or escaping light back into the quantum dot enhancement layer for conversion. The surface of the light guide plate is overlapped with the shield portion for preventing any light leakage and the mixing of light of different wavelengths and thus colors is increased and improved.

Abstract: A display apparatus which is not subject to light leakage from a cut edge of a quantum dot layer includes a display panel and a backlighting module. The backlight module includes light source, light guide plate, and quantum dot enhancement layer. The quantum dot enhancement layer has functional and invalidation portions. The functional portion converts light from the light guide plate into predetermined wavelengths. The invalidation portion is formed in the non-display region, and is unable to convert light from the light guide plate into predetermined wavelengths. A distance between a side surface of the invalidation portion and a side surface of the main display region is larger than or equal to a predetermined distance. The effect of the predetermined distance is to prevent the light leaking or transmitted from the invalidation portion from entering the display region at normal viewing angles.

Abstract: A backlight module having better heat dissipation, includes a backboard, a frame coupled to a peripheral area of the backboard, at least one light source, and a thermally conductive layer located on the backboard. The backboard is made of a thermally conductive material. The at least one light source is embedded in the thermally conductive layer and in direct contact with the thermally conductive layer which removes heat as it is generated by the light source.

Abstract: A display apparatus utilizing all light output by a light source also includes a display panel with a shield portion, a light guide plate, and a quantum dot enhancement layer. The display panel includes a display portion and a shield portion. The light guide plate is parallel with the display panel and guides light emitted by the light source to the display panel. The quantum dot enhancement layer converts a wavelength of the light and the shield portion is configured to reflect stray or escaping light back into the quantum dot enhancement layer for conversion. The surface of the light guide plate is overlapped with the shield portion for preventing any light leakage and the mixing of light of different wavelengths and thus colors is increased and improved.

Abstract: A liquid crystal display includes a liquid crystal panel and a backlight module. The backlight module includes a light guide plate, a light source assembly, and a diffusion member. The diffusion member is disposed between LEDs of the light source assembly and a light incident surface of the light guide plate. The diffusion member includes a first transparent layer adjacent to the LEDs and a second transparent layer adjacent to the light guide plate. A refractive index of the first transparent layer is greater than that of the second transparent layer, and a refractive index of the second transparent layer is greater than that of the light guide plate.

Abstract: An exemplary light emitting package includes a reflector, a receiving groove defined in the reflector, a light emitting device, and an encapsulation body. The light emitting device is received in the receiving groove and covered by the encapsulation body. The encapsulation body includes a number of light guide layers, and refractive indexes of the light guide layers gradually increase along a direction corresponding to a direction of propagation of the light from the light emitting device.

Abstract: A backlight module includes a light source, a light guide plate, and a reflector. The light guide plate includes a top surface, a bottom surface, and a circumferential side surfaces. The single top surface includes both a light incident area and a light emitting area. The light source is positioned above the light incident area to feed light down into the light guide plate and the reflector covers the bottom surface and the side surface to reflect light otherwise escaping through the bottom surface and the side surface.

Abstract: A backlight module includes a light guide plate having a light input surface, a light source adjacent to the light input surface of the light guide plate, and a frame unit receiving the light guide plate and the light source. The frame unit includes a back plate and a light reflective layer. The back plate defines a plurality of openings, and the light reflective layer covers the back plate and fills the openings. A method for manufacturing the backlight module is also provided.

Abstract: An exemplary backlight module (300) includes a frame (350) and a bottom plate (370). One of the frame and the bottom plate includes a plurality of elastically deformable buckling structures (358), and the other of the frame and the bottom plate includes a plurality of protrusions (204, 374) corresponding to the buckling structures. When the bottom plate is attached to the frame, the bottom plate and the frame are pressed together along a first axis, and the buckling structures elastically deform and then elastically rebound such that the buckling structures are engaged with the protrusions and the bottom plate is fixed to the frame.

Abstract: A backlight module includes a light guide plate having a light input surface, a light source adjacent to the light input surface of the light guide plate, and a frame unit receiving the light guide plate and the light source. The frame unit includes a back plate and a light reflective layer. The back plate defines a plurality of openings, and the light reflective layer covers the back plate and fills the openings. A method for manufacturing the backlight module is also provided.

Abstract: An exemplary backlight module (300) includes a frame (350) and a bottom plate (370). One of the frame and the bottom plate includes a plurality of elastically deformable buckling structures (358), and the other of the frame and the bottom plate includes a plurality of protrusions (204, 374) corresponding to the buckling structures. When the bottom plate is attached to the frame, the bottom plate and the frame are pressed together along a first axis, and the buckling structures elastically deform and then elastically rebound such that the buckling structures are engaged with the protrusions and the bottom plate is fixed to the frame.

Abstract: An exemplary backlight module includes a tray and at least two opposite frame beams. The tray includes two opposite side walls, and the side walls include a plurality of first fixing members. The two frame beams are separate pieces from each other, and include a plurality of second fixing members secured with the first fixing members such that the two frame beams are fixed to the tray. A liquid crystal display including the backlight module is also provided.

Abstract: An exemplary backlight module (2) includes a metal back plate (21) and a frame (22) formed together as a single body, a light guide plate (24) having a light incident surface, and plural light sources (26) arranged adjacent to the light incident surface. The combined metal back plate and frame defines a space accommodating the light guide plate and the light sources. The combined metal back plate and frame can protect the light guide plate and the light sources from being displaced in the event of collision or shock. Therefore the backlight module can maintain reliable optical performance even in rugged application environments or when an accident occurs. A liquid crystal display using the backlight module is also provided.