Abstract: An electronic apparatus includes a PCB with a heat generating electronic component disposed thereon, a heat sink, and a mounting device for mounting the heat sink onto the heat generating electronic component. The mounting device includes a mounting frame and a wire clip. The mounting frame surrounds the heat sink, and includes two first mounting arms and two second mounting arms disposed above the first mounting arms. The first mounting arms abut on the PCB. A pair of engaging wings are formed on the second mounting arms. The wire clip includes a pivot axle pivotably attached to the mounting frame and two resilient arms at opposite sides of the mounting frame. The resilient arms abut against the heat sink and engage with the engaging wings, thereby exerting a resilient force on the heat sink toward the heat generating electronic component.

Abstract: A mounting structure for a power module, in which a power module and a heat sink can be easily separated without additional labor and time and without requiring an extra disassembly space in a product and in which parts are not damaged during the disassembly. In the heat sink (5a), screw holes (7a) having female screw threads into which power module fixing screws (2a) are screwed are formed so as to penetrate a power module mounting surface (5c) of the heat sink (5a) and heat radiation fins (9a). The power module fixing screw (2a) is constructed such that, to mount the power module (3) on the heat sink (5a), the screw head of the power module fixing screw (2a) is tightened from the printed circuit board (4a) side with a tool (8a) and that, to remove the power module (3) from the heat sink (5a), the power module fixing screw (2a) is loosened with the tool (8a) from the heat radiation fin (9a) side on the opposite side of the screw head.

Abstract: A heat dissipation assembly for a central processing unit includes a heat radiator adapted to contact the central processing unit from above and a base adapted to support the central processing unit from below. The base includes at least a snap-on fastening mechanism adapted to snap into a through hole formed in a supporting substrate of the central processing unit. The heat radiator includes at least a fastener receiving portion for receiving an elongated fastener and aligning the elongated fastener with a matching engaging element of the snap-on fastening mechanism.

Abstract: To constitute an optical module in which a comb-shaped submount is fixed on a heat sink and a device having an optical functioning unit is mounted on the comb-shaped submount, a stress buffering block that relaxes a thermal stress acting between the heat sink and the comb-shaped submount is placed between the heat sink and the comb-shaped submount. With this configuration, a thermal stress acting between the comb-shaped submount and the device mounted thereon is relaxed, and as a result, long-term reliability of bonding parts between the comb-shaped submount and the device is enhanced.

Abstract: A locking device is used for securing a heat sink to an electronic device mounted on a first face of a printed circuit board which defines a first hole. The heat sink defines a second hole therein. The locking device has a fastener including a head portion located aside the heat sink, a foot portion located aside a second face of the printed circuit board, and a body portion extending through the holes of the heat sink and the printed circuit board and interconnecting the head portion and the foot portion. The foot portion includes a buckling part abutting against the second face of the printed circuit board, and a positioning part extending towards the head portion to a position above the buckling part. When the buckling part abuts against the printed circuit board, the positioning part has a portion thereof entering into the first hole.

Abstract: A bracket is used to mount a heat sink to a printed circuit board (PCB). The heat sink can dissipate heat for an electronic component mounted on the PCB. Cantilevers can be detached from the bracket, and replaced by other cantilevers with different sizes to mount a plurality of heat sinks having different sizes.

Abstract: An electronics enclosure is provided. The electronics enclosure includes a heat dissipating body comprising: a heat conducting surface, a first flange adjacent to the heat conducting surface, and a first part of a latch mechanism adjacent to the heat conducting surface. The first part of the latch mechanism is adjacent an edge of the heat conducting surface opposite to the first flange, such that a portion of the heat conducting surface is between the first flange and the first part of the latch mechanism. The electronics enclosure also includes a plurality of electronic modules configured to mount to the heat dissipating body.

Abstract: A hermetically sealed and/or ignition protection housing is provided with heat bridges at discreet points. The heat bridges form mounting faces in the interior space of the housing and also on the outer side. Heat from the interior of the housing generated by an item on the interior mounting faces is dissipated outwardly at the corresponding points by means of the heat bridges.

Abstract: A heat sink assembly dissipates heat of a chip on a circuit board. A temperature collecting module of the heat sink assembly senses temperature of the chip and generates corresponding analog signals. A display module of the heat sink assembly receives the analog signals and converts the analog signals into digital signals, and then displays the digital signals with temperature unit symbol.

Abstract: A heat sink for cooling a component is disclosed. A medium flows around the heat sink by at least sectional guidance of a main flow and a secondary flow of the medium, the main flow being separated from the secondary flow up to a constriction. After the constriction the secondary flow merges with the main flow.

Abstract: A heatsink mounting system (10) is provided for containing and engaging a heatsink (16) against a heat generating component, typically an IC chip (18). The system (10) is includes a rectangular integrally formed resilient frame (12) defining a cavity (26) in which the heatsink (16) is contained. The frame (12) includes a pair of opposed lateral sides (30) and a pair of opposing gripping sides (28) with L-shaped corner blocks (32) depending from the intersections thereof. The gripping sides (28) include centrally positioned grip handles (38) with curved handle posts (39) extending upward and grip blocks (34) depending therefrom, each grip block (34) having a grip tongue (36) at the lower extent thereof extending inward into the cavity (26). Inward pressure on the grip handles (38) forces the grip tongues (36) outward to release objects captured thereby.

Abstract: A semiconductor device formed by using semiconductor packages is provided. The semiconductor device includes two semiconductor packages adjacently arranged in opposite directions on an inductive conductor. Terminals of the two semiconductor packages are joined by a third lead. the third lead is arranged substantially in parallel to the inductive conductor. Leads at the joint portions have, for example, a bent structure, and the third lead is arranged to be close to the inductive conductor.

Abstract: The invention relates to a fixing element (10), in particular in the form of a fixing clamp, for fixing an electronic component (12, 14) to a surface (18) of a cooling body (16). The fixing element (10) has a first free end (44) and a second free end (46), wherein the first free end (44) is formed by a first straight section (28). At least one projection (30) is provided on the first straight section (28), which can be detachably clipped into a recess (22, 24) of the cooling body (16) beneath an overhang (58).

Abstract: An electronic equipment includes: an attachment plate; attachments disposed on the attachment plate and each provided with a female screw; a printed circuit board placed on the attachments; electronic parts mounted on the surface of the printed circuit board opposite to the attachments, and whose surfaces opposite to the surface of the printed circuit board serves as heat release surfaces; and a heat sink having a thermal-conduction surface and screw insertion holes. The thermal-conduction surface is abutted in common against the heat release surfaces with a heat release grease between them, male screws inserted into the screw insertion holes are penetrated through the printed circuit board, and meshed with the female screws threaded in the attachments, the heat sink is attached together with the printed circuit board to the attachments, and at least one of the attachments can be displaced in the thickness direction of the printed circuit board.

Abstract: A system includes a circuit board, a multi-die package, and a heat dissipator. The circuit board has substantially planar opposing first and second sides. The multi-die package includes a substrate and a first set of one or more semiconductor devices on a first substrate side and a second set of one or more semiconductor devices on a second substrate side. The multi-die package is located at the first circuit board side. The heat dissipator is located at the second circuit board side, and thermally coupled to the second set of semiconductor devices. One or more portions of the circuit board are removed between the first circuit board side and the second circuit board side so as to define one or more holes through the circuit board and to facilitate thermal coupling between the second set of semiconductor devices and the heat dissipator through the one or more holes.

Abstract: To improve manufacture of an electronic circuit, the electronic circuit is composed of modules of sub-circuits arranged on a common substrate, such as a cooling body, and that are electrically interconnected by a planar electrical contact element.

Abstract: A package includes a thermal interface member which includes a bulk layer and a surface layer that is disposed on at least a portion of a surface of the bulk layer. The surface layer is highly thermally conductive, has a melting point exceeding a solder reflow temperature, and has a maximum cross-sectional thickness of less than about 10 microns.

Abstract: A motherboard includes a printed circuit board, and a heat generating component mounted on the printed circuit board. A plurality of mounting holes is defined in the printed circuit board for mounting a heat sink apparatus on the heat generating component. At least a ground via is defined in the printed circuit board and adjacent to each of the mounting holes. The heat sink apparatus is capable of electrically contacting the ground via, and the ground via is capable of reducing electromagnetic interference of the motherboard and grounding static electricity on the heat sink apparatus.

Abstract: A mounting apparatus for mounting a power supply having a first connector on a front side, includes an enclosure, a bracket, and a board. The enclosure includes a rear wall defining an opening for the power supply passing therethrough. The bracket is mounted to the enclosure below the opening, capable of supporting the power supply. A second connector protrudes up from a front end of the bracket, configured for engaging with the first connector of the power supply. The board is attached to a rear side of the power supply, to cover the opening of the rear wall. A plurality of latching slots is defined in the enclosure or the bracket. A plurality of hooks is formed on the board, to engage in the plurality of latching slots.

Abstract: According to one aspect of the invention, a method of constructing an electronic assembly is provided. A layer of metal is formed on a backside of a semiconductor wafer having integrated formed thereon. Then, a porous layer is formed on the metal layer. A barrier layer of the porous layer at the bottom of the pores is thinned down. Then, a catalyst is deposited at the bottom of the pores. Carbon nanotubes are then grown in the pores. Another layer of metal is then formed over the porous layer and the carbon nanotubes. The semiconductor wafer is then separated into microelectronic dies. The dies are bonded to a semiconductor substrate, a heat spreader is placed on top of the die, and a semiconductor package resulting from such assembly is sealed. A thermal interface is formed on the top of the heat spreader. Then a heat sink is placed on top of the thermal interface.

Abstract: A power electronics power module is provided. The power electronics power module includes an electrically conductive substrate, a electronic die having first and second opposing surfaces and at least one transistor formed thereon, the electronic die being mounted to the electrically conductive substrate and the at least one transistor being configured such that when the at least one transistor is activated, current flows from the first surface of the electronic die into the electrically conductive substrate, and a control member at least partially imbedded in the electrically conductive substrate, the control member having a control conductor formed thereon and electrically connected to the at least one transistor such that when a control signal is provided to the control conductor, the at least one transistor is activated.

Abstract: A high power solid state power controller packaging system and power panel are disclosed. The high power solid state power controller packaging system includes a plurality of discrete power devices assembled juxtaposed to one another in a row, a fin style heatsink, an input bus bar and an output bus bar, and a circuit card assembly connected to the plurality of discrete power devices for managing power signals among the plurality of discrete power devices. The power panel includes a chassis, a mounting bracket with connector sockets formed in the mounting bracket, and a plurality of high power solid state power control modules modularly mounted in the connector sockets.

Abstract: A package structure includes a substrate; a die over and flip bonded on the substrate; a heat sink over the die; and one or more spacer separating the heat sink from the substrate.

Abstract: An apparatus includes a plurality of islands each carrying multiple cantilevers. The apparatus also includes a fluidic network having a plurality of channels separating the islands. The channels are configured to provide fluid to the islands, and the fluid at least partially fills spaces between the cantilevers and the islands. Heat from the islands vaporizes the fluid filling the spaces between the cantilevers and the islands to transfer the heat away from the islands while driving the cantilevers into oscillation. The apparatus may also include a casing configured to surround the islands and the fluidic network to create a vapor chamber, where the vapor chamber is configured to retain the vaporized fluid. The islands and the fluidic network could be formed in a single substrate, or the islands could be separate and attached together by a binder located within the channels of the fluidic network.

Abstract: One embodiment of the present invention uses plasma-driven gas flow to cool down electronic devices. The cooling device may comprise micro heat sink fins assembly, micro plasma actuators assembly, and magnetic circuit assembly. The plasma actuator assembly comprises electrodes and dielectric pieces. Voltages are applied to electrodes to drive the plasma gas flow. A magnetic circuit assembly may be used to provide the magnetic field to couple with plasma actuators to induce the plasma gas flow to cool down the heat sink fins and heat source.

Abstract: A heat dissipation device includes a fin unit, a heat spreader and a heat isolation layer. The heat spreader contacts the fin unit and transfers heat to the fin unit for dissipation. The heat isolation layer is coated on an outer surface of the heat dissipation device. The heat isolation layer is polyurethane foam.

Abstract: A heat sink for cooling parts, subassemblies, modules, or similar components, for cooling electrical or electronic components. The heat sink includes at least one cooling element which forms at least one cooling area for connecting the component that is to be cooled and which is made of a metallic material in the cooling area.

Abstract: A mounting assembly includes a circuit board, a chip socket mounted on a topside of the circuit board with a chip attached thereon, a heat sink positioned on a top surface of the chip, and a backplate attached to an underside of the circuit board. The heat sink includes a pair of securing legs at two corners of the heat sink, and a pair of securing members. Each securing leg defines a securing hole thereon. Each securing member includes a spring thereon positioned between the corresponding securing legs and the circuit board. The securing members are secured in the corresponding securing holes to secure the heat sink to the circuit board.

Abstract: A stacked-chip packaging structure includes chip sets, a heat sink, a substrate, a circuit board, and solder balls. The chip sets are stacked together, each of which has a heat-dissipation structure and a chip. The heat-dissipation structure has a chip recess, through holes arranged in the chip recess, and an extending portion extending from the chip recess. The chip disposed in the chip recess has bumps. Each bump on the chip is correspondingly disposed in one of the through holes of the heat-dissipation structure. The extending portion of the heat-dissipation structure of each chip set contacts that of the neighboring chip set. The heat sink and the substrate are disposed at two opposite sides of the chip sets, respectively. The circuit board is below the substrate. The solder balls are between the circuit board and the substrate.

Abstract: A heat dissipating module includes a heat dissipating unit, a heat collecting plate with a position limiting hole, a heat conducting member connected between the heat dissipating element and the heat collecting plate, and a fixing structure. The fixing structure includes two end portions, an arcuate elastic portion, and a position limiting portion connected to the arcuate elastic portion and extending through the position limiting hole. Each end portion is slidably disposed on the heat collecting plate. The arcuate elastic portion is connected between the two end portions and adapted to be fastened to the heat collecting plate and a base, such that an electrical component is sandwiched in between the heat collecting plate and the base.

Abstract: An apparatus for heatsink attachment and a method for forming the apparatus. The apparatus includes a substrate, a semiconductor chip on top of and physically attached to the substrate, and a lid on top of the substrate. The lid includes a first thermally conductive material. The apparatus further includes a heatsink on top of the lid. The heatsink includes a second thermally conductive material. The semiconductor chip and the substrate share a common interface surface that defines a reference direction perpendicular to the common interface surface and pointing from the substrate towards the semiconductor chip. The lid is disposed between the substrate and the heatsink. The lid includes a first protruding member. The first protruding member of the lid is farther away from the substrate than a portion of the heatsink in the reference direction.

Abstract: An AC/DC power supply and platform for a military radio has been developed. The apparatus includes a base that supports at least one SINCGARS RT-1523 radio. The base is connected to an AC power supply and at least one DC power supply. The AC supply and DC power supply are configured to switch automatically to the DC power supply should the AC power supply fail. The housing of the platform is sealed from the exterior environment with gaskets.

Abstract: A heat sink assembly includes a heat sink adapted for thermally contacting an electronic component of a printed circuit board, and a clip pressing the heat sink and engaging with the printed circuit board. The clip includes a pressing portion pressing the heat sink, two arms extending slantwise and upwardly from opposite ends of the pressing portion, two connecting portions extending outwardly from the two arms, two securing portions engaging with the printed circuit board, and two operating portions. When the two operating portion are operated, the connecting portions are rotated and the securing portions rotate with the connecting portions to engage with the printed circuit board.

Abstract: A baffle has a slot, with the slot positioned between first and second adjacent components when the baffle is installed above the components. A pair of heatsinks are inserted into the slot, with at least one heatsink having a heat dissipating portion that remains above the slot after insertion into the slot. A spring is inserted into the slot between the pair of heatsinks.

Abstract: An apparatus for passively cooling electronics. The apparatus for passively cooling electronics includes at least one heat pipe and at least one heat sink thermally coupled to a bridge plate. When a cradle is thermally coupled to the at least one heat pipe, the at least one heat sink draws heat from the cradle.

Abstract: A heat dissipation assembly has a containment apparatus preventing unwanted migration of a thermal interface material to surrounding areas on a top surface of a heat sink. The containment apparatus includes a cap correspondingly covering the thermal interface material and an annular frame extending downwardly from a bottom end of the cap and attached to a periphery of a top of the heat sink. The cap includes a ceiling and a plurality of inclined sidewalls extending downwardly and outwardly from edges of the ceiling, thereby forming a protective space within the cap combining with the top surface of the heat sink to enclose the thermal interface material. Two ears extend outwardly from the frame and accommodate opposite ends of an abutting body of a wire clip therein.

Abstract: The semiconductor device includes a circuit board. The circuit board has an insulating substrate, a metal circuit fixed on a first side of the insulating substrate, and a metal plate fixed on a second side of the insulating substrate. The semiconductor device further has a semiconductor element mounted on the metal circuit, a stress reducing member fixed on the metal plate, and a heat sink fixed on the stress reducing member. The stress reducing member is plate-shaped and has round-shaped corners.

Abstract: A thermal conduction structure is integrated into a multi-layer circuit board to thermally couple a power electronic device to a heatsink while electrically isolating the power electronic device from the heatsink. The thermal conduction structure includes a stack of alternatingly insulative and conductive layers, a first set of vertical vias that thermally and electrically join the power electronic device to a first set of conductive layers, and a second set of vertical vias that thermally and electrically join the heatsink to a second set of conductive layers that are interleaved with the first set of conductive layers.

Abstract: The present invention relates generally to heat removal from circuit board components and, more specifically, to improved thermal management for circuit board components mounted on electrical wiring boards. The structure comprises a heat sink; and an auxiliary heat sink positioned in thermal contact with the heat sink and a circuit board component on a wiring board, the auxiliary heat sink having a plurality of slots located in a central portion of the auxiliary heat sink, wherein the auxiliary heat sink is both mechanically compliant and thermally conductive with both the heat sink and the circuit board component.

Abstract: Embodiments of the present invention provide a system for distributing a thermal interface material. The system includes: an integrated circuit chip; a heat sink; and a compliant thermal interface material (TIM) between the integrated circuit chip and the heat sink. During assembly of the system, a mating surface of the heat sink and a mating surface of the integrated circuit chip are shaped to distribute the TIM in the predetermined pattern as the TIM is pressed between the mating surface of heat sink and a corresponding mating surface of the integrated circuit chip.

Abstract: A device for storing electrical energy is provided, especially for a motor vehicle. The device includes at least one rechargeable storage cell and a cooling unit which is in thermal contact with the storage cell. The storage cell is accommodated in a retaining element and is in thermal contact with the retaining element, mating molded sections on the retaining element and the cooling unit mechanically interconnecting the retaining element and the cooling unit in a self-locking manner.

Abstract: A load driving device includes: an output power device for driving a load; a driving IC for controlling the output power device, wherein the driving IC is electrically coupled with the output power device through a wire or a connection member; and a first electrode substrate. The output power device and the driving IC are mounted on the first electrode substrate. In this case, the output power device is controlled with high speed, and a mounting area of the output power device and the driving IC is reduced.

Abstract: A lamp base having a heat sink is connected to a bulb having two electrodes. The lamp base includes a heat sink, a first electrically conductive piece, a second electrically conductive piece, and leads. The heat sink comprises a heat-dissipating base formed with a trough for accommodating the bulb therein. The first electrically conductive piece is fixed in the trough and is electrically connected to an electrode of the bulb. The second electrically conductive piece is fixed in the trough and is electrically connected to the other electrode of the bulb. The second electrically conductive piece is electrically insulated from the first electrically conductive piece. The leads are electrically connected to the first electrically conductive piece and the second electrically conductive piece respectively. With the heat sink dissipating the heat generated by the bulb, the lamp base has extended lifetime.

Abstract: An electronic device comprises a printed circuit board, an electronic component mounted on the printed circuit board, a heat dissipation device dissipating heat generated by the electronic component and a plurality of wires on the printed circuit board. The heat dissipation device comprises a heat sink and a pair of fasteners securing the heat sink to the printed circuit board. Each fastener comprises a frame body having a gap defined at a top portion thereof. The wires in a form of a wire harness extend through the gap of the frame body and into the frame body.

Abstract: An energy storage cell pack cradle assembly for holding multiple rows of energy storage cells oriented along a dominant axis of vibration includes a first cradle member including a plurality of energy storage cell body supporting structures including respective holes; a second cradle member including a plurality of energy storage cell body supporting structures including respective holes; and one or more fasteners connecting the first cradle member and the second cradle member together. The energy storage cell body supporting structures are configured to structurally support the energy storage cells, with the energy storage cells oriented along a dominant axis of vibration, by energy storage cell bodies of the energy storage cells with respective electrically conductive terminals extending through the respective holes without structural support of the electrically conductive terminals by the cradle members.

Abstract: The present application relates to apparatus (100) for cooling a light valve device (103), the apparatus comprising an array of elongate members (119), the elongate members (119) each having a tip (131) for contacting the light valve device (103). The apparatus (100) is suitable for cooling a digital micro-mirror device (103). A duct (117) may be provided for directing a flow of air from a fan to the light valve device (103).

Abstract: A heat dissipation apparatus includes a heat sink and a fan. The heat sink defines a recessed space at a center of a top end thereof, and an engaging groove in an inner circumference of the top end of the heat sink surrounding and communicating with the space. The fan includes a frame and an impeller assembled to the frame. A plurality of legs extends downwardly from the frame. Each of the legs includes a hook at a free end thereof. The hooks of the legs engage in the engaging groove of the heat sink for securely mounting the fan in the recessed space of the heat sink. Heat pipes extend through the heat sink and connect with a base.

Abstract: An electronic control apparatus can be reduced in size and cost by eliminating certain parts such as a power board, etc. The apparatus includes a housing, a heat sink attached to one end of the housing, semiconductor switching elements mounted on the heat sink, a circuit board arranged in opposition to the heat sink, and a plurality of conductive plates electrically connecting the circuit board and the semiconductor switching elements. The heat sink is composed of a heat sink main body, and an anodized aluminum film formed at least on a surface of the heat sink main body at a side at which the power device is mounted thereon, and the heat sink main body has outer peripheral end faces arranged in opposition to inner wall surfaces of an opening portion of the housing.

Abstract: A printed circuit board employing a heat sink retaining apparatus and method of use is disclosed. In one form of the disclosure, a heat sink apparatus can include a heat sink operable to be coupled to a first portion of a printed circuit board having an integrated circuit, and a retaining mechanism operably coupled along a first surface of the heat sink. The retaining mechanism can be coupled to a second portion of the printed circuit board to produce a tension between the first surface of the heat sink and the second portion of the printed circuit board.

Abstract: An integrated circuit (IC) package is provided. The IC package includes a substantially planar substrate having a plurality of contact pads on a first surface electrically connected through the substrate to a plurality of solder ball pads on a second surface of the substrate, an IC die having a first surface mounted to the first surface of the substrate, and a heat sink assembly coupled to a second surface of the IC die and to a first contact pad on the first surface of the substrate to provide a thermal path from the IC die to the first surface of the substrate. The IC die has a plurality of I/O pads electrically connected to the plurality of contact pads on the first surface of the substrate. The IC die is mounted to the first surface of the substrate in a flip chip orientation.