Abstract: A method, device, and computer program product are provided for adjusting brightness of an optical touch panel. The optical touch panel comprises a microprocessor, a display module including a back light source, and an optical position detection device including optical transmitting devices and optical receiving devices. The method comprises detecting, via the optical receiving devices, a current ambient light level on the display module. The method further comprises generating, via the optical receiving devices, a current ambient light level signal indicative of the detected current ambient light level and transmitting the current ambient light level signal to the microprocessor. Furthermore, the method comprises adjusting, via the microprocessor, brightness of the back light source based on the current ambient light level signal.

Abstract: A method and device are provided for adjusting brightness of an optical touch panel. The optical touch panel comprises a microprocessor, a display module including a back light source, and an optical position detection device including optical transmitting devices and optical receiving devices. The method comprises detecting, via the optical receiving devices, a current ambient light level on the display module. The method further comprises generating, via the optical receiving devices, a current ambient light level signal indicative of the current ambient light level and transmitting the current ambient light level signal to the microprocessor. Furthermore, the method comprises adjusting, via the microprocessor, brightness of the back light source based on the current ambient light level signal.

Abstract: A display apparatus includes a touch panel having a touch failure portion and a pair of first contacts and a repairing component having a pair of second contacts. The repairing component is positioned on the touch panel at a position corresponding to the touch failure portion and the pair of first contacts is electrically coupled to the pair of second contacts.

Abstract: A multi-touch optical touch panel which comprises a rectangular position-detecting surface with a length L and a width W; a first set of a plurality of light-emitting element pairs configured for emitting a plurality of light beams, wherein the first set of light-emitting element pairs are arranged at various points along a first side of the position-detecting surface in a lengthwise direction; a second set of a plurality of light-emitting elements are arranged at various points along the first side at 90 degrees with reference to the first side; two reflectors arranged along two opposed sides of the rectangular position-detecting surface in the W direction; and a first set of a plurality of light-receiving element pairs configured for receiving the plurality of light beams emitted by the first set of light-emitting element pairs, wherein the first set of light-receiving element pairs are arranged at various points along a second side of the position-detecting surface opposite to the first side in a lengthwis

Abstract: A method and device are provided for adjusting brightness of an optical touch panel. The optical touch panel comprises a microprocessor, a display module including a back light source, and an optical position detection device including optical transmitting devices and optical receiving devices. The method comprises detecting, via the optical receiving devices, a current ambient light level on the display module. The method further comprises generating, via the optical receiving devices, a current ambient light level signal indicative of the current ambient light level and transmitting the current ambient light level signal to the microprocessor. Furthermore, the method comprises adjusting, via the microprocessor, brightness of the back light source based on the current ambient light level signal.

Abstract: A light-emitting device is provided and includes a circuit, at least one heat-conducting member, a plurality of light-emitting elements, at least one heat-dissipating member and a power supply. The circuit board has at least one trench for the heat-conducting member to be disposed. The plurality of light-emitting element is disposed on the heat-conducting member. The heat dissipating member is disposed on the circuit board and connected to the heat-conducting member. The power supply, is electrically connected with the circuit board to provide the power of the light-emitting elements.

Abstract: A display apparatus, such as a rear projection television, includes a housing, a display panel and a plurality of LED heat dissipating modules disposed in the housing. The display panel is connected to the housing, and each of the LED heat dissipating modules includes a pulsating heat pipe, a plurality of fins, and a plurality of LEDs for providing light to the display panel. The LEDs are disposed on the pulsating heat pipe and located at the vaporizing section, and the fins are connected to the pulsating heat pipe and all located at the condensing section for increasing the heat dissipating area.

Abstract: A light-emitting heat-dissipating device includes a substrate and at least a light-emitting package module capable of generating heat. The substrate includes at least a recess and at least one thermally conducting element disposed in the recess. The light-emitting package module is disposed on the thermally conducting element and electrically connected to the substrate of the substrate via solder joints. A manufacturing method of the light-emitting heat-dissipating device is also disclosed.

Abstract: A light-emitting heat-dissipating device includes at least one light-emitting chip and a circuit board. The circuit board has at least one recess and at least one thermally conducting element disposed in the recess. The light-emitting chip is disposed on the thermally conducting element and connected to the circuit board via contact pads electrically connected to a circuit layout of the circuit board. In addition, the light-emitting chip is package by a filler on the circuit board. A packaging method of the light-emitting heat-dissipating device is also disclosed.

Abstract: A heat sink including a main body and a plurality of porous structures is disclosed. The main body has a plurality of hollow fins and a base. The fins and the base form a closed room. The porous structures are set on the interior surfaces of different fins, and are connected to the base. Each porous structure defines a vapor chamber.

Abstract: A heat dissipation module includes an air conveying device, a first member and a second member. The first member has at least one air inlet, and the second member is formed with a heat transfer enhancing structure on its surface and mounted on a heating element. The second member is coupled to the first member to form a cooling chamber having at least one air vent, and allows the heat transfer enhancing structure to be received therein. The air conveying device draws airflow into and out of the cooling chamber, and the heat transfer enhancing structure defines at least one passage along which the airflow propagates in the cooling chamber.

Abstract: A heat sink including a main body and a plurality of porous structures is disclosed. The main body has a plurality of hollow fins and a base. The fins and the base form a closed room. The porous structures are set on the interior surfaces of different fins, and are connected to the base. Each porous structure defines a vapor chamber.