Abstract: A surface light source structure having a circuit board, a first light emitting diode (LED) array, and a second LED array is provided. The first and second LED arrays are assembled on the circuit board. Each LED rows of the two LED arrays has a plurality of LED units connected in series. The LED rows of the first LED array are connected in parallel. The LED rows of the second LED array are connected in parallel. The LED rows of the second LED array are intersected between the LED rows of the first LED array. Positive-to-negative directions of the LED units of the first and second LED array are arranged in opposite directions.

Abstract: A backlight module includes a panel, a base, at least a light-emitting element, a heat-dissipating board and at least a circuit board. The base is connected to the panel to form an accommodating space. The light-emitting element is disposed in the accommodating space. The heat-dissipating board is disposed on the base and connected to the base. The heat-dissipating board includes at least two connecting portions and a top portion. The connecting portions are respectively connected to two ends of the top portion and the base to separate the top portion from the base for forming a heat-dissipating space therebetween. The circuit board is disposed on an outer surface of the top portion far away from the base.

Abstract: A backlight module includes a panel, a base, at least a light-emitting element, a heat-dissipating board and at least a circuit board. The base is connected to the panel to form an accommodating space. The light-emitting element is disposed in the accommodating space. The heat-dissipating board is disposed on the base and connected to the base. The heat-dissipating board includes at least two connecting portions and a top portion. The connecting portions are respectively connected to two ends of the top portion and the base to separate the top portion from the base for forming a heat-dissipating space therebetween. The circuit board is disposed on an outer surface of the top portion far away from the base.

Abstract: A liquid crystal display module and an integrated driving board thereof are disclosed. The driving board includes a substrate, a circuit pattern, a timing clock driver, a light emitting diode (LED) driving module, a color management module and a photosensitive chip. The circuit pattern is disposed on the surface of the substrate. The timing clock driver, the LED driving module, the color management module and the photosensitive chip are disposed on the substrate and electrically coupled to the circuit pattern. The LED driving module is electrically coupled to the timing clock driver. The color management module is electrically coupled to the LED driving module. The photosensitive chip is electrically coupled to the color management module.

Abstract: A surface light source structure having a circuit board, a first light emitting diode (LED) array, and a second LED array is provided. The first and second LED arrays are assembled on the circuit board. Each LED rows of the two LED arrays has a plurality of LED units connected in series. The LED rows of the first LED array are connected in parallel. The LED rows of the second LED array are connected in parallel. The LED rows of the second LED array are intersected between the LED rows of the first LED array. Positive-to-negative directions of the LED units of the first and second LED array are arranged in opposite directions.

Abstract: A backlight module includes a heat-dissipating element, at least one light-emitting element disposed on the heat-dissipating element, and a reflective plate disposed on the heat-dissipating element. The reflective plate includes at least one opening for the light-emitting element to pass through. The backlight module further includes a circuit board disposed between the heat-dissipating element and the reflective plate for driving the light-emitting element. The circuit board includes at least one opening for the light-emitting element to pass through, and at least one electrical connection part for electrically connecting the circuit board and the light-emitting element.

Abstract: A backlight module includes a planar light plate with planar illumination for providing a planar light, the backlight module further including a light plate base and at least one side retaining frames that can be assembled/detached. The light plate base is disposed on one side under the light plate, and two opposite sides thereof extend upward to form two side frames for retaining two opposite sides of the light plate. The side retaining frame is sleeved on the lateral side of the opening end of the light plate base, for retaining the light plate in the light plate base.

Abstract: A backlight apparatus includes a guiding element and a light source disposed at one side of the guiding element. There is a plurality of reflective patterns at the bottom surface of the guiding element. Each reflective pattern is composed of at least one concavity and at least one convexity. The concavity is disposed at the rim around the convexity. As the light source emits light to the guiding element, the reflective area is increased by the concavity of the reflective pattern for increasing the reflecting effect and for distributing the brightness more uniformly, and thereby higher brightness and uniformity can be achieved.

Abstract: The present invention relates to a backlight module, wherein by disposing buffer elements in the edges and/or below the plate lamp, the plate lamp of the backlight module can avoid the damage resulting from an external force. In addition to a vibration-resistant effect, the buffer elements disposed below the bottom of the plate lamp can further maintain a uniform spacing between the plate lamp and the rear frame so that the light-emitting efficiency, brightness uniformity, and operation can be maintained.

Abstract: The present invention discloses a heat-dissipating method and structure for a backlight module of a display device, which can improve the heat-dissipating ability of the backlight module of a display device. Via shifting the disposing direction of the liquid crystal panel, the present invention enables the control-drive element and the related circuit boards, which are disposed on the rear face of the backlight module, to keep away from the heat-concentrated region so that the disposing positions of the control-drive element and the circuit boards will not overlap the heat-concentrated region of the backlight module; thus, the heat-dissipating ability can be improved. In the preferred embodiment of the present invention, a heat-dissipating component, such as a set of heat-dissipating fins, is installed in the heat-concentrated region in order to increase the heat-dissipating area thereof; thus, the heat-dissipating ability can be further improved, and the heat distribution is to be uniform.

Abstract: A diffuser plate utilized in a backlight module, wherein the diffuser plate comprises a glass plate adopted as the base, and a diffusive material utilized in a diffusion-treatment. The preferred embodiments of the present invention include coating diffusive particles on the surface of the glass substrate, embedding diffusive particles into the glass substrate, and gluing a diffusive sheet onto the surface of the glass substrate or the diffusive sheet's covering the surface of the glass substrate, all of which can form a diffuser plate with a superior distortion-resistance, heat-resistance, and humidity-resistance.

Abstract: A reflecting structure for planar gas discharge lamps to improve luminance includes a front glass panel on a light emission side, a rear glass panel on a backlight side, at least one pair of electrodes, a fluorescent layer abutting the light emission side and a reaction gas held between the front glass panel and the rear glass panel. The electrodes have a voltage difference to activate the reaction gas to generate discharge which actuates the fluorescent layer to generate light. The light emits through the light emission side of the front glass panel. The invention further provides a light reflective element to reflect the light passing through the backlight side to the front light emission side to increase light utilization and improve the luminance of the light emission side.

Abstract: A backlight apparatus includes a guiding element and a light source disposed at one side of the guiding element. There is a plurality of reflective patterns at the bottom surface of the guiding element. Each reflective pattern is composed of at least one concavity and at least one convexity. The concavity is disposed at the rim around the convexity. As the light source emits light to the guiding element, the reflective area is increased by the concavity of the reflective pattern for increasing the reflecting effect and for distributing the brightness more uniformly, and thereby higher brightness and uniformity can be achieved.

Abstract: An edge-type backlight module positioned under a display panel includes a light guide plate, a lampshade, and a lamp. The lamp including a curved part is installed inside the lampshade for emitting light to one side of the light guide plate.

Abstract: A backlight module includes a planar light plate with planar illumination for providing a planar light, the backlight module further including a light plate base and at least one side retaining frames that can be assembled/detached. The light plate base is disposed on one side under the light plate, and two opposite sides thereof extend upward to form two side frames for retaining two opposite sides of the light plate. The side retaining frame is sleeved on the lateral side of the opening end of the light plate base, for retaining the light plate in the light plate base.

Abstract: In a backlight system of a liquid crystal display, a light guide plate includes a plurality of reflector units. The light guide plate is in wedge or flat shape, which has a front surface, a back surface, and four side surfaces. The plurality of reflector units are integrally formed with the back surface of the light guide plate, each of which is designed as an annular protrusion. Through one of the four side surfaces, a light beam irradiated by a lamp propagates into the light guide plate. Regardless of the propagating direction, part of the light beam is reflected by the reflector unit into two reflective light beams that are then refracted out of the front surface of the light guide plate. Therefore, the light guide plate according to the present invention achieves an excellent reflective efficiency.