Abstract:
A LED chip package including a two-phase-flow heat transfer device, at least one LED chip, a metal lead frame and a package material. The two-phase-flow heat transfer device has at least one flat surface. The LED chip is directly or indirectly bonded or adhered to the flat surface of the two-phase-flow heat transfer device. Heat generated by the LED chip can be easily conducted away from the LED chip by the two-phase-flow heat transfer device such as a heat pipe, a vapor chamber and the like so as to prevent heat from accumulating in the LED chip thereby extending the service duration of the LED chip and to prevent the LED chip from deterioration of the light emitting performance caused by the accumulation of heat.
Abstract:
A vapor chamber comprises a flat metal tube formed of a circular metal tube by pressing, a powder sintering portion disposed on the inner wall of the metal tube, a supporting structure disposed in and surrounded by the metal tube, a working fluid filled in the metal tube; wherein the top and bottom sides of the metal tube are flat, the two opposite sides connecting the top and bottom sides are seamlessly circular arc shaped, and the other two opposite sides are the sealed ends formed of the two open ends by pressing and sealing. The present invention provides a vapor chamber for CPU, GPU, LED solar cell or other high heat producing electronic products to solve the heat dissipation issues.
Abstract:
An LED lamp has a base, a tubular conductor, a bulb and at least one LED. The base is metallic and has an electrical connector. The tubular conductor is filled with a fluid and mounted on the base and has a distal end and a proximal end. The bulb is pellucid and connected to the base. The at least one LED is mounted on the distal end of the tubular conductor and electrically connected to the connector of the base. The fluid in the tubular conductor may vaporize close to operating temperatures of the LED so transports heat away from the LED quickly and efficiently so allowing high power or multiple LEDs to be implemented, so improving brightness of the LED lamp and commercial applications.
Abstract:
A network controlled indoor lighting system is disclosed, which is constructed based on a device control unit with network connectivity, and a remote controller containing the software for users to control the interior lighting system. The system allows users to control a plurality of LED lamps in terms of brightness, color temperature, beam angle and illumination direction. The system has single/multi-point control, and online error diagnosis.
Abstract:
A network controlled indoor lighting system is disclosed, which is constructed based on a device control unit with network connectivity, and a remote controller containing the software for users to control the interior lighting system. The system allows users to control a plurality of LED lamps in terms of brightness, color temperature, beam angle and illumination direction. The system has single/multi-point control, and online error diagnosis.
Abstract:
A vapor chamber manufacturing method, comprises steps of material preparation, powder filling and sintering, pre-punching, supporting structure infilling, the first pressing, the first sealing, fluid injection, and vacuum processing; a sealing structure comprises a semi-finished vapor chamber with a vacuum cavity, a fluid injection port positioned on one side of the vapor chamber, and a supporting structure filled in the vacuum cavity and supporting the shape of the vapor chamber, wherein the fluid injection port is formed of one portion of one side of the vapor chamber by pressing and sealing, no fine metal pipe as fluid injection port is required herein; after the step of fluid injection, an integrated step of vacuum pumping, pressing and sealing is conducted within a vacuum chamber, to provide the product with higher performance and lower rejection rate.
Abstract:
An ultra-thin heat pipe comprises a flat metal tube and one or more sintered powder portions. The flat metal tube has an upper tube wall, a lower tube wall and two lateral walls connecting with the upper tube wall and the lower tube wall. The sintered powder portions extends axially and are formed on an inner face of at least one of the upper tube wall, the lower tube wall and the lateral walls such that vapor passage space is formed at one or more sides of the sintered powder portions.
Abstract:
An LED lamp has a metal housing, a sintered heat pipe and an LED. The metal housing has an outer surface, an inner surface, a bottom and an opening defined by an inner edge. The sintered heat pipe engages the inner surface and the bottom and the inner edge of the metal housing. The LED is attached to a flattened area of the bottom portion of the sintered heat pipe. The sintered heat pipe rapidly transports heat generated by the LED to the metal housing which then transfers heat to the environment. The sintered heat pipe makes effective heat transportation possible and allows the use of high-power LEDs or multiple LED's within one lamp.
Abstract:
An LED lamp has a metal housing, a heat pipe and an LED. The metal housing has an outer surface, an inner surface, a bottom and an opening defined by an inner edge. The heat pipe engages the inner surface, the bottom and the inner edge of the metal housing. The LED is attached to the bottom portion of the heat pipe. The heat pipe rapidly transports heat generated by the LED to the metal housing which then transfers heat to the environment. The heat pipe makes effective heat transportation possible and allows the use of high-power LEDs or multiple LED's within one lamp.
Abstract:
The measuring system generates a temperature difference between a heating terminal and a terminal conductive device by setting the temperature of a metal heated block at the heating terminal and the temperature of a heat dissipating water jacket at a heat dissipating terminal, and judges the thermal conductive capability of the thermal conductive device by comparing the cooling speed of the metal heating bock to obtain a relative power value according to the variation of heat quantity of the metal heated block in practical temperature reduction process. The maximum thermal conductive quantity (Qmax value) of the thermal conductive device can be rapidly obtained by parameter conversion with respect to the maximum power value. In the case of confirming the cooling curve (cooling speed) of a standard sample, the object of screening the thermal conductive efficiencies of the thermal conductive devices can be achieved by using the cooling curve.