Provided is a lighting device comprising: a plurality of LED light sources formed on a printed circuit board; and a reflective unit stacked on the printed circuit board in a structure in which the LED light sources penetrate, wherein the reflective unit comprises a first reflective film and a second reflective film disposed to oppose to each other, and a first adhesive pattern layer which bonds the first and second reflective films, and in which a plurality of unit air cells having a first air area formed in an inner part thereof are closely disposed to communicate with each other. According to the present invention, it is advantageous that the improvement of luminance as well as the improvement of light reflectance can be maximized by providing the reflective unit having an air area to a surface of the printed circuit board.

A lighting device includes a substrate, a light source and a reflective sheet. The light source is fixed relative to a surface of the substrate with a gap therebetween. The reflective sheet includes first and second portions that are separated with respect to each other and are arranged with respect to each other in a first direction. The reflective sheet is configured such that both the first and second portions are inserted into the gap between the light source and the surface of the substrate as viewed from a perpendicular direction, or such that one of the first and second portions extends through the gap between the light source and the surface of the substrate to a vicinity of the other one of the first and second portions that is provided outside of the light source as viewed from the perpendicular direction.

A backlight module and a manufacturing method of same are provided by this disclosure. The backlight module includes a frame, a thermoelectric device group, a first heat conductive layer and a lamp plate. The thermoelectric device group is disposed on a bottom surface inside the frame. The first heat conductive layer is disposed on a surface at a side of the thermoelectric device group away from the frame. The lamp plate is disposed on a surface at a side of the first heat conductive layer away from the frame.

A display apparatus with improved assembility, productivity and quality. The display apparatus includes: a display panel; a rear chassis covering a rear surface of the display panel, and the rear chassis including a coupling protrusion protruding toward the display panel; a reflective sheet including a fixing hole in which the coupling protrusion is inserted, and rested on a front surface of the rear chassis when the coupling protrusion is inserted in the fixing hole; and a substrate coupled to the rear chassis in a front direction of the reflective sheet such that the reflective sheet is prevented from being separated from the rear chassis, wherein a plurality of light sources configured to irradiate light toward the display panel are mounted on the substrate.

A display device includes a display panel, and a supporting unit that supports the display panel, the supporting unit having a first portion, a second portion and a third portion that are arranged relative to each other, the first portion protruding toward the display panel relative to the second portion, the second portion protruding toward the display panel relative to the third portion, the second portion of the supporting unit having at least one projection that protrude away from the display panel relative to the second portion, the at least one projection being configured and arranged to support a member of the display device at a rear of the supporting unit.

Assemblies for enhancing the optical quality of electronic images displayed at an electronic display layer are provided. An optical component is located adjacent to the electronic display layer within a housing for the electronic display layer and the optical component. At least one shock-absorbing subassembly is attached to a location along the housing and to said optical component.

A liquid crystal panel assembly includes a liquid crystal panel, a backlight module having at least one light emitting diode (LED) light source to irradiate light to the liquid crystal panel, and a housing which surrounds the liquid crystal panel and the backlight module. At least a portion of the housing adjacent to the at least one LED light source is formed of a thermal-conductive material.

A light-emitting structure, a backlight module, a display module, and a display device are provided. The light-emitting structure includes a circuit substrate, including a first surface and a second surface sequentially arranged along a light-exiting direction of the light-emitting structure. The circuit substrate also includes a light-transparent substrate and a wiring structure located on a side of the light-transparent substrate in a thickness direction. The light-emitting structure also includes a plurality of light-emitting elements, arranged in an array on one of the first surface or the second surface of the circuit substrate. The plurality of the light-emitting elements is electrically connected to the wiring structure. The light-emitting structure also includes a heat sink, located on a side of the first surface of the circuit substrate. The heat sink is configured for dissipating heat generated by the plurality of the light-emitting elements.

A backlight structure, a liquid crystal display (LCD) panel and an electronic device. The backlight structure includes a backboard, a plurality of bonding units spaced apart on the backboard, a plurality of light sources fixed to the backboard by the plurality of bonding units, wherein an area of a projection of a contact surface between the light sources and the bonding units on the backplane is less than or equal to an area of a projection of the light sources on the backboard.

A lighting system and method controls light to prioritize different elements of the beam of light that is output by a fixture. The LCD surface acts as a color occlusion filter that provides pixel level control of the beam of light transmitted by this layer. Internally an LED source is projected perpendicular to concave type reflector which can be moved on one axis and thus zoom to either widen or narrow the light emitted forward as a beam of light. The system also includes certain cooling features.