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 gas-liquid separation apparatus includes a crust and a separating pipe located in the crust. The crust includes an annular wall and two lids covering two ends of the wall. The crust has a cavity surrounded by the wall and the two lids. An inlet extends through one lid and an outlet extends through the other lid. The separating pipe is disposed in the cavity of the crust and in communication with the inlet and the outlet of the crust. A plurality of apertures is defined in a body of the separating pipe and in communication with a space inside the separating pipe and the cavity of the crust. The liquid with gas dissolved therein enters into the separating pipe via the inlet of the crust. The liquid is degassed by the separating pipe. The de-gassed liquid exits the separating pipe via the outlet of the crust.
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 the liquid firstly enters the second chamber via an inlet (122) and flows through the filter, 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 flow out of the liquid cooling device via an outlet (124).
Abstract:
A memory module assembly (1) includes a printed circuit board (10) having an electronic heat-generating electronic component (40) thereon, a heat sink (20) and a clip (30) for securing the heat sink onto the heat-generating electronic component. The clip includes a pressing portion (32) and a pair of latching portions (33) respectively extending from two ends of the pressing portion. Each latching portion includes a latching leg (332) and a retaining hook section (334) formed at a bottom end of the latching leg. The retaining hook sections tightly engage a bottom face of the printed circuit board and the pressing portion presses the base toward the heat-generating electronic component. The latching legs extend through an opening and a through hole in the printed circuit board. The through hole has a L-shaped configuration and does not communicate with a periphery side of the printed circuit board.
Abstract:
A memory module assembly (1) includes a printed circuit board (10) having an electronic heat-generating electronic component (40) thereon, a heat sink (20) and a clip (30) for securing the heat sink onto the heat-generating electronic component. The clip includes a pressing portion (32) and a pair of latching portions (33) respectively extending from two ends of the pressing portion. Each latching portion includes a latching leg (332) and a retaining hook section (334) formed at a bottom end of the latching leg. The retaining hook sections tightly engage a bottom face of the printed circuit board and the pressing portion presses the base toward the heat-generating electronic component. The latching legs extend through an opening and a through hole in the printed circuit board. The through hole has a L-shaped configuration and does not communicate with a periphery side of the printed circuit board.
Abstract:
A memory module assembly includes a printed circuit board (10) having a heat-generating electronic component (14) thereon, and first and second heat-dissipation plates (20), (30) attached on opposite sides of the printed circuit board. The first heat-dissipation plate includes a first hook (24) extending from a side thereof and the first hook includes a resisting portion (242) extending from an end of the first heat-dissipation plate and a first engaging portion (244) extending from a free end of the resisting portion for resisting the printed circuit board and the second heat-dissipation plate. The second heat-dissipation plate defines a depressed portion (34) in a side thereof for engaging with the first hook. The other sides of the first and second heat-dissipation plates engage with each other to clamp the printed circuit board between the first and second heat-dissipation plates.
Abstract:
The invention provides human phosphodiesterases (HPDE) and polynucleotides which identify and encode HPDE. The invention also provides expression vectors, host cells, antibodies, agonists, and antagonists. The invention also provides methods for diagnosing, treating, or preventing disorders associated with aberrant expression of HPDE.
Abstract:
The invention provides human adenylyl and guanylyl cyclases (ADGUC) and polynucleotides which identify and encode ADGUC. The invention also provides expression vectors, host cells, antibodies, agonists, and antagonists. The invention also provides methods for diagnosing, treating, or preventing disorders associated with aberrant expression of ADGUC.
Abstract:
A wire-suspended objective lens actuator structure and a method of assigning current pathways. The lens holder on the actuator structure has a group of focusing coils, a group of tracking coils and a group of slant adjustment coils. The coils are connected to four conductive wires. A first conductive wire controls the focusing coil and a second conductive wire controls the tracking coil. Similarly, a third conductive wire controls the slant adjustment coil. The ground terminals of all three groups of coils are connected in parallel to a fourth conductive wire. The fourth conductive wire serves as a common ground terminal. The control terminal of each group of coils is connected to a differential voltage-output current amplifier circuit or a differential voltage-output voltage amplifier circuit. Hence, the focusing, the tracking and the slant adjustment coils can be driven by differential voltages.
Abstract:
A method of fast start and/or fast termination of a radio frequency resonator, which has a coil, a capacitor and two switches with internal resistance wherein one end of the switches is connected to a junction of the coil and the capacitor where a RF voltage is provided, and another end of each switch is connected to high voltage power supplies with opposite polarities, a fast start being achieved by closing one of the switches for a short period of time for fast start, and a fast termination being obtained by closing both switches for a while.