Abstract:
Das Leistungshalbleitermodul umfasst eine Wärmeableitkontaktfläche (16) zur wärmeleitenden Verbindung mit einem Kühlelement (17). Um eine einfache, kostengünstig herstellbare und zuverlässige Befestigung an und Wärmeleitung zu dem Kühlelement sicherzustellen, ist mindestens ein Anpresselement (18, 19) unverlierbar mit dem Leistungshalbleitermodul verbunden. Im montierten Zustand presst dieses Anpresselement (18) die Wärmeableitkontaktfläche (16) an das Kühlelement (17).
Abstract:
A self-leveling heat sink includes a spring-arm device having at least one aperture and at least one spring-arm is coupled to a substrate. The substrate has at least one package mounted thereon, so that when the spring-arm device is mounted to the substrate the at least one package passes through the at least one aperture. A heat sink operable to remove heat from the at least one package has at least one heat sink post operable to receive a heat sink clip located at the distal end of each of the at least one spring-arms. Each of the at least one spring-arms extending from an inside edge of the at least one aperture and operable to couple the heat sink to the at least one package.
Abstract:
Some disclosed embodiments include an integrated heat sink assembly having a standoff press disposed through the bottom of a bore in a support base of the heat sink, a screw disposed through the top of the bore in the support base of the heat sink, a spring adapted to bias the screw against the heat sink, wherein the screw and spring engage the standoff to attach the heat sink to the support base. The integrated heat sink assembly may be used to maintain contact between a heat sink and a processor on a motherboard. Other embodiments are disclosed and claimed.
Abstract:
An electronic device and method for extracting heat from a heat producing component having front and back sides, the front side is disposed across from the back side, and the front side is attached to a substrate including multiple holes. A thermal interface material is disposed over the back side of the heat producing component. A heat sink including multiple pins corresponding to the multiple holes in the substrate is disposed over the thermal interface material such that the pins are disposed through the holes. The thermal interface material melts and wets to form a thermal coupling between the back side and the heat sink when passed over pre-heaters of a wave soldering machine. Further, the pins are soldered to form solder joints between the respective pins and the substrate when passed over a solder wave in the wave soldering machine to lock-in the thermal coupling formed during the preheating of the thermal interface material to provide a low-cost thermal solution.
Abstract:
An electronic device and method for extracting heat from a heat producing component having front and back sides, the front side is disposed across from the back side, and the front side is attached to a substrate including multiple holes. A thermal interface material is disposed over the back side of the heat producing component. A heat sink including multiple pins corresponding to the multiple holes in the substrate is disposed over the thermal interface material such that the pins are disposed through the holes. The thermal interface material melts and wets to form a thermal coupling between the back side and the heat sink when passed over pre-heaters of a wave soldering machine. Further, the pins are soldered to form solder joints between the respective pins and the substrate when passed over a solder wave in the wave soldering machine to lock-in the thermal coupling formed during the preheating of the thermal interface material to provide a low-cost thermal solution.
Abstract:
By the structure, the heights of semiconductor devices mounted on a board are small. This raises the mounting density of boards ona shelf. The structure is detachably mounted on a board easily. An opening (1a) is provided in a circuit board (1), and a semiconductor device (2) is so mounted on the surface of the circuit board that the bottom face is in the opening. A heat transferring member (3, 11) is adhered to the bottom face of the semiconductor device. The other side of the member is exposed from the back side of the circuit board (1), passing through the opening (1a), and is adhered to a heat radiating plate (4) provided on the back of the board. Heat generated from the semiconductor device is transferred to the heat radiating plate (4) through the heat transferring member (3 or 11), and is radiated to the air from the surface of the plate (4) to cool the semiconductor device. The heat dissipating structure of the semiconductor device characterized in that, at least either one of the semiconductor device (2) and the heat radiating plate (4) is made of a magnetic material, and the both are adhered to the heat transferring member by the magnetic attraction of a permanent magnet (3 or 10) laid between the both.
Abstract:
An electrical isolator device (20) which comprises at least one heat sink (steel plate) (21), and a non-conductive housing (24) which partially encases the heat sink (21), such that at least one surface of the heat sink (21) is in contact with the non-conductive housing (24); whereby the surfaces of the heat sink (21) which are not in contact with the non-conductive housing (24) are exposed to the atmosphere to allow dissipation of heat therefrom.
Abstract:
A holding device for an integrated circuit chip (60) includes a thermally conductive body (10) provided with a cavity (12) in which are arranged thermoelectric modules (14, 15) having located thereon a conductive pad (16) on which is mounted a further thermoelectric module (18) in contact with a thermally conductive block (20). The block (20) extends into a gas chamber (50) located in the body (10) and having upper and lower thermally insulative, slotted plates (24, 27). A socket (22) mounted on the lower plate (22) receives, via the slot in the upper plate (27), an integrated circuit chip (60). The thermoelectric modules (14, 15, 18) serve to rapidly heat and cool the chip. Dry nitrogen gas supplied via an inlet (30) to the gas chamber (50) is directed towards the chip (60) by inclined edges of the slot in the upper plate (27), thereby inhibiting condensation during cooling of the chip (60).
Abstract:
Heat pin integrated circuit packaging apparatus for dissipating heat from electronic components into a cooling device. The apparatus comprises: a mounting element, such as a printed circuit board (10), having at least one cavity (40), for mounting the electronic components (1) in an electrical circuit; a heat pin (50), for thermally conducting heat away from the electronic component (1); a thermal planar frame (60) having at least one opening or position (90) for capturing a heat pin (50), the thermal planar frame having an inwardly facing surface (80) exposed to the cooling device; and an arrangement for detachably coupling the electronic component (1) to the heat pin (50) such that the electronic component (1) is electrically coupled to the printed circuit board (10) and thermally coupled to the heat pin (50). Thus heat generated by the electronic component (1), flows into the heat pin (50) and is dissipated into the thermal planar frame (60) for cooling by any of a variety of cooling devices. of the transfer ports.