Abstract: A heat dissipation device includes a first heat sink thermally contacting an electronic component, a second heat sink connecting to the first heat sink, and a heat pipe thermally connecting the first heat sink with the second heat sink. The first heat sink defines a receiving portion at a lateral side thereof. The heat pipe includes an evaporating section attached to the first heat sink, a condensing section attached to the second heat sink and a connecting section interconnecting the evaporating section with the condensing section. An engaging portion protrudes from a lateral side of the second heat sink and is firmly embedded in and lockable with the receiving portion of the first heat sink. The heat pipe extends through the engaging portion.

Abstract: The present disclosure provides a system and method for providing a flexible architecture for attaching computing devices to wireless networks.

Abstract: A heat dissipation device includes a base including a base plate made of a first heat conductive material and a substrate made of a second heat conductive material having a heat conductivity lower than that of the first heat conductive material. The substrate comprises a frame with a window receiving the base plate therein and an engaging plate spanning over the window. A fin set includes a plurality of fins parallel with and spaced from each other, and is mounted on the base. A heat pipe has an evaporating section sandwiched between the base plate and the engaging plate, and two condensing sections extending through the fin set and thermally connecting therewith. The evaporating section has a substantially V-shaped configuration.

Abstract: A cooling plate of a liquid cooling includes a chamber hermetically defined therein, an outlet, and an inlet. The outlet and the inlet communicate with the chamber for circulating liquid through the chamber. One of the outlet and the inlet is located in the other one of the outlet and the inlet.

Abstract: A miniature liquid cooling device includes a casing (10) defining a first chamber (102), a second chamber (104) and a third chamber (106) communicating with the first chamber. The first and the third chambers cooperatively form a work channel for liquid. An impeller (21) is rotatably mounted in the first chamber to circulate the liquid. A filter (17) is mounted in the second chamber and defines a plurality of orifices (1704). When the impeller rotates, first the liquid firstly enters the second chamber via an inlet. (122), and then the liquid flows through the filter within the second chamber, whereby air bubbles in the liquid leave the liquid and escape from the filter via the orifices. The escaped air bubbles enter the second chamber. The deaerated liquid flows into the work channel and finally is driven to low out of the liquid cooling device via an outlet (124).

Abstract: A heat dissipation device adapted for removing heat from LED modules of an LED lamp includes a plurality of heat sinks, a plurality of fin sets and a plurality of heat pipes extending through the fin sets and thermally connecting the heat sinks and the fin sets together. The heat sinks each have a base plate with a bottom surface which is kept in contact with corresponding LED modules and a plurality of fins arranged on a top surface of the base plate. Each of the fin sets consists of a plurality of flakes and defines a plurality of air passages between the flakes. Air can flow through the heat dissipation device from a place thereunder to a place thereabove via the air passages between the flakes of the fin sets.

Abstract: A heat sink for cooling an electronic component includes a lower plate, an upper plate, an upper fin set and a lower fin set respectively fixed on the upper plate and the lower plate, and a plurality of heat pipes sandwiched between the upper plate and the lower plate. The lower plate forms a protrusion projecting downwardly therefrom. A bottom surface of the protrusion is milled to be flat and smooth, whereby the bottom surface can intimately contact the electronic component. A method for manufacturing the heat sink comprising milling a bottom surface of a protrusion punched downwardly from a lower plate, whereby the bottom surface can be flat and smooth sufficiently to have an intimate contact with an electronic component, and sequentially welding an upper plate on the lower plate and a plurality of fins on the lower plate and the upper plate, respectively.

Abstract: The disclosure relates to an evaporator and a loop heat pipe employing it. The evaporator includes a shell having an evaporation chamber and a compensation chamber defined therein, a partition being received in the shell and partitioning the evaporation chamber and the compensation chamber, and a wick structure being adhered to an inner wall of the shell corresponding to the evaporation chamber and extending through the partition and into the compensation chamber. The loop heat pipe includes the evaporator mentioned above, a pipe connecting two opposite ends of the evaporator to form a closed loop and a working medium contained in the closed loop.

Abstract: An LED lamp includes a first heat sink, a pair of second heat sinks arranged at two opposite sides of the first heat sink, a plurality of heat pipes connecting the first heat sink to the pair of second heat sinks, and an LED module mounted on the first heat sink. With the help of good heat conducting capability of the heat pipes, heat generated by LEDs of the LED module can be conducted to the first heat sink and the pair of second heat sinks rapidly, which then dissipate the heat to the ambient air. Each second heat sink consists of a plurality of sheets defining a plurality of gaps therebetween; the gaps extend through top and bottom of each second heat sink. Each second heat sink has a lower portion below a bottom surface of the first heat sink.

Abstract: A heat sink includes a heat spreader for absorbing heat from a heat-generating source, a tank covering on the heat spreader and hermetically engaging with the heat spreader, a first wick layer formed on an inner face of the tank, a second wick layer formed on an inner face of the heat spreader, and a supporting member located between the tank and the heat spreader. A chamber is defined between the tank and the heat spreader and contains working fluid therein. The supporting member is arranged in a wave shape and supports the first wick layer and the second wick layer.

Abstract: A heat spreader includes a base with a cavity defined therein and a cover mounted on the base to thereby hermetically seal the cavity of the base. A predetermined quantity of working liquid is contained in the cavity. The heat spreader further includes a first wick structure formed on an inner surface of the base, a second wick structure formed on an inner surface of the cover and a third wick structure embedded in the first wick structure. The first and second wick structures are made of metal mesh, carbon nanotube array or bundle of fibers and the third wick structure is made of sintered metal powder. In use, the third wick structure is positioned corresponding to a heat generating electronic component.

Abstract: A liquid cooling device includes a casing having an outer wall, a bottom base attached to a bottom end of the outer wall and a top cover attached to a top end of the outer wall. The casing defines a receiving space therein for receiving an impeller therein. A sealed chamber is defined in the casing and isolated from the receiving space. A motor driving unit is received in the sealed chamber and magnetically interacts with the impeller to drive the impeller to rotate. The motor driving unit comprises a motor having a stator and a printed circuit board electrically connecting with the stator. The top cover covers the motor driving unit and thermally contacts with electronic components on the printed circuit board for dissipating heat generated by the electronic components when the motor driving unit is operated.

Abstract: A light source device includes a first heat dissipation structure, an LED module, a heat energy convertor and a fan. The first heat dissipation structure includes a heat dissipation base, a first fin group attached on a top surface of the heat dissipation base. The LED module is attached on a bottom surface of the heat dissipation base of the first heat dissipation structure. The heat energy convertor is thermally connected to the heat dissipation base of the first heat dissipation structure through heat pipes, and configured for changing heat energy generated by the LED module into kinetic energy. The fan is disposed over the first fin group and driven by the heat energy convertor.

Abstract: An LED lamp comprises a lamp housing, a heat sink made of metal and mounted at a bottom side of the lamp housing, a plurality of LED modules, and a vapor chamber having a bottom surface thereof attached to a top surface of the heat sink and having a top surface thereof to which the LED modules are attached, a working liquid is sealed in the vapor chamber. The vapor chamber defines a sealed chamber therein, and the working liquid is phase changeable liquid and is sealed in the sealed chamber. A plurality of ribs is arranged in the vapor chamber for strengthening an integrity of the vapor chamber, and the ribs divide the sealed chamber into a plurality of communicating spaces.

Abstract: A heat sink includes a first plate having a top portion and a bottom portion, a second plate projecting from the top portion of the first plate, and a plurality of fins thermally contacting the second plate. The second plate has a width larger than that of the first plate. The heat pipe includes a first portion embedded in the bottom portion of the first plate for directly contacting an electronic component to be cooled, and a second portion bent from one end of the first portion. The second portion is located at one side of the first plate, while the first portion of the heat pipe is located at a middle of the first plate.

Abstract: A miniature liquid cooling device includes a casing (10) having a base (16) attached on a heat-generating electronic component for absorbing heat generated by the electronic component. The casing includes an outer wall (12) mounted on the base and a top cover (15) mounted on the outer wall. A receiving space is enclosed by the casing. A heat-absorbing member (40) is attached on the base and received in the receiving space for exchanging heat with liquid in the casing. An impeller (21) is rotatably mounted in the receiving space and above the heat-absorbing member. When the impeller rotates the liquid is driven to flow into the liquid cooling device via a liquid inlet (122) and then flow through the heat-absorbing member and finally flow out of the liquid cooling device via a liquid outlet (124).

Abstract: A heat sink assembly includes a first heat dissipating plate, a second heat dissipating plate, at least one flat heat pipe horizontally positioned between the first heat dissipating plate and the second heat dissipating plate. The at least one flat heat pipe surrounds or defines an enclosed-space. The enclosed-space is closed by the first heat dissipating plate and the second heat dissipating plate. At least one through hole communicates with the enclosed-space and is defined in the second heat dissipating plate.

Abstract: A vehicle interior classification system and method in accordance with the present invention determines a classification relating to the interior of the vehicle, such as the occupancy status of a vehicle seat or the state of alertness of a vehicle driver, from one or more images of an appropriate portion of the interior of the vehicle acquired with an image capture device. The acquired images are preferably processed to limit the dynamic range of the images to obtain a resultant image which can comprise one or more regions of interest which are less than the total field of view of the image capture device. The resultant images are processed to extract information about features in the image and, in one embodiment, this processing is achieved with a two-dimensional complex discrete wavelet transform which produces a set of coefficients corresponding to the presence and/or location of the features in the resultant image.

Abstract: An LED lamp includes a heat dissipation device and a plurality of LED modules. The heat dissipation device includes a heat conductive member and a fin unit. The LED modules are attached to a top surface of a first plate of the heat conductive member. The heat conductive member comprises a plurality of posts embedded in the top surface of the first plate. Peripheries of the first and second plates are in a hermetical conjunction with each other to form a chamber containing phase-changeable working fluid therein. The first plate has a plurality of receiving recessions which are depressed downwardly from the top surface thereof and respectively receive the posts. Screws are used to extend through the LED modules to threadedly engage in the posts thereby to intimately mount the LED modules on the top surface of the first plate of the heat conductive member.

Abstract: A gas-liquid separation apparatus includes an inlet pipe for transferring liquid with gas dissolved therein and a separating pipe for separating the gas from the liquid. The separating pipe has a spiral-shaped guiding member therein. The separating pipe extends from the inlet pipe and is in alignment and communicating with the inlet pipe. An outlet pipe extends from a joint of the inlet pipe and the separating pipe and communicates with the separating pipe, for transferring therein the liquid after the liquid has been degassed by the spiral-shaped guiding member in the separating pipe. A gas storage device communicates with the separating pipe and outside for collecting the gas from the separating pipe and discharging the gas to the outside.