Abstract: A semiconductor device includes a wiring substrate, a semiconductor element mounted on the wiring substrate, a first radiator member arranged on and thermally coupled to the semiconductor element, and a second radiator member arranged on and thermally coupled to the first radiator member. The second radiator member includes projections which project out toward the first radiator member. The projections are formed on a circumference of a concentric circle with respect to a center point of the second radiator member. The first radiator member includes grooves in which the projections are movable. The grooves are formed on a circumference of a concentric circle with respect to a center point of the first radiator member. The projections are fitted to terminating ends of the grooves with the center point of the first radiator member and the center point of the second radiator member coincided.

Abstract: Semiconductor dies are mounted on a heat sink array frame structure. The heat sink array frame structure and the semiconductor dies are assembled together with an insulating substrate that has a corresponding array of apertures on an adhesive tape. The semiconductor dies are connected electrically with electrical contacts on the insulating substrate. The semiconductor dies, heat sinks and electrical connections to the contacts are encapsulated with a mold compound and then the encapsulated array is de-taped and singulated.

Abstract: According to an exemplary embodiment, a dual compartment semiconductor package includes a conductive clip having first and second compartments. The first compartment is electrically and mechanically connected to a top surface of the first die. The second compartment electrically and mechanically connected to a top surface of a second die. The dual compartment semiconductor package also includes a groove formed between the first and second compartments, the groove preventing contact between the first and second dies. The dual compartment package electrically connects the top surface of the first die to the top surface of the second die. The first die can include an insulated-gate bipolar transistor (IGBT) and the second die can include a diode. A temperature sensor can be situated adjacent to, over, or within the groove for measuring a temperature of the dual compartment semiconductor package.

Abstract: A heatsink may include an area in thermal contact with a semiconductor microchip surface and a first trench of a first depth. The first trench may be substantially continuous around the area. A first substance, such as ferrite, may be positioned in the first trench to attenuate electromagnetic interference. A second trench having a second depth may be formed around and further from the area than the first trench. A second substance may be positioned in the second trench.

Abstract: A pressing portion of a fixture is put on a lid of a semiconductor package, and anchor portions on the opposite sides of the pressing portion are opposed to a baseplate. Two screw members are passed individually through opening parts formed spanning the pressing portion and anchor portions and threadedly engage with a heat sink through the baseplate. If the screw members are tightened in this state, the anchor portions are pressed by the baseplate, and the pressing portion presses the lid of the semiconductor package, whereby the baseplate is fixed to the heat sink in pressure contact with it.

Abstract: A lightweight radio/CD player for vehicular application is virtually “fastenerless” and includes a case and frontal interface formed of polymer based material that is molded to provide details to accept audio devices such as playback mechanisms (if desired) and radio receivers, as well as the circuit boards required for electrical control and display. The case and frontal interface are of composite structure, including an insert molded electrically conductive wire mesh screen that has been pre-formed to contour with the molding operation. The wire mesh provides EMC, RFI, BCI and ESD shielding and grounding of the circuit boards via exposed wire mesh pads and adjacent ground clips. The PCB architecture is bifurcated into a first board carrying common circuit components in a surface mount configuration suitable for high volume production, and a second board carrying application specific circuit components in a wave soldered stick mount configuration.

Abstract: A manufacturing technique for constructing passive electronic components in vertical configurations is disclosed. Electrically passive components are constructed in a structure that is substantially perpendicular to target platform including a first plane to provide a larger electrode contact area and a smaller physical dimension. Passive components structured to be substantially perpendicular to a plane associated with a target platform can be directly connected to pad contacts of an integrated circuit or substrate or can be embedded in a package to reduce the area overhead of a passive component while improving the effectiveness of the passive components in their applications.

Abstract: A thermally conductive LED assembly is disclosed. The thermally conductive LED assembly includes an elongate conductor cable having a first conductor and a second conductor extending along a length of the elongate conductor cable and a thermally conducting and electrically insulating polymer layer disposed between first conductor and second conductor and a second electrically insulating polymer layer is disposed on the first conductor or second conductor. The electrically insulating polymer layer having a thermal impedance value in a range from 2.5 to 15 C.°-cm2/W and a plurality of light emitting diodes are disposed along the length of the elongate conductor cable. Each light emitting diode is in electrical communication with the first conductor and the second conductor.

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: The invention relates to a power semiconductor module including a module underside, a module housing, and at least two substrates spaced from each other. Each substrate has a topside facing an interior of the module housing and an underside facing away from the interior of the module housing. The underside of each substrate includes at least one portion simultaneously forming a portion of the module underside. At least one mounting means disposed between two adjacent substrates enables the power semiconductor module to be secured to a heatsink.

Abstract: A device includes a circuit board and a dual sided package. The dual sided package fits into an opening provided in the circuit board. The dual sided package includes a first portion with a first set of integrated circuits (ICs), a second portion with a second set of ICs, and a package substrate provided between the first portion and the second portion. The package substrate connects to the circuit board, and the first portion and the second portion face opposite directions.

Abstract: A semiconductor device includes: a semiconductor chip; a protective film and an insulating film sequentially stacked over the semiconductor chip, and each having openings that expose source, drain, and gate pads; a heat dissipation terminal made of a material having a higher thermal conductivity than the insulating film; connection terminals formed on the source, drain, and gate pads and surrounded by the insulating film; and a mount substrate having connection pads. The semiconductor chip has a source electrode having a plurality of source fingers, a drain electrode having a plurality of drain fingers, and a gate electrode having a plurality of gate fingers. The source, drain, and gate pads are connected to the source electrode, the drain electrode, and the gate electrode, respectively. The connection terminals are respectively connected to the connection pads. The heat dissipation terminal is in close contact with the mount substrate.

Abstract: A mounting assembly includes a circuit board, a securing member and a heat dissipating device. A retainer is located on the circuit board. The securing member includes a positioning portion and a claw connected to the positioning portion. The heat dissipating device includes a base attached to the circuit board and a number of fins perpendicularly located on the base. The number of fins defines a number of first air paths and a number of second air paths substantially perpendicular to the number of first air paths. The positioning portion is received in at least one of the number of first air paths and at least one of the number of second air paths, and the claw is engaged with the retainer.

Abstract: An electronic device includes an integrated circuit and a heat spreader. The integrated circuit includes a substrate with an active via located therein. The heat spreader includes a thermally conductive core. The active via is connected to a corresponding heat spreader via that passes through the thermally conductive core.

Abstract: Provided is a heat sink clip for fastening a heat sink on a printed circuit board (PCB). The heat sink clip includes two hooks and a wire clip. The two hooks are inversely fixed to the PCB at two opposite sides of the heat sink. The wire clip includes a pressing wire pressing the heat sink, two pairs of deforming wires extending from the lateral of the pressing wire along two radial directions of the pressing wire and away from the PCB, and two engaging wires engaging with the respective hooks such that the deforming wires are bent towards the PCB.

Abstract: An integrated circuit heat spreader stacking system includes: an integrated circuit on a substrate; a heat spreader having a heat sink dome; a stacking stand-off for the heat spreader; and the heat spreader mounted with the heat sink dome over the integrated circuit.

Abstract: The semiconductor device has a unit stack body including a plurality of units stacked on one another. Each unit includes a power terminal constituted of a lead part and a connection part. The connection part is formed with a projection and a recess. When the units are stacked on one another, the projection of one unit is fitted to the recess of the adjacent unit, so that the power terminals of the respective unit are connected to one another.

Abstract: A motherboard system includes a PCB, a CPU socket mounted on the PCB, a heat dissipating device, and a number of fastening devices. The CPU socket is configured for receiving a CPU. The heat dissipating device is mounted on the CPU socket for dissipating heat generated by the CPU. The fastening devices extend through the heat dissipating device and the CPU socket and are engaged in the PCB, thereby fastening the heat dissipating device, and the CPU socket to the PCB.

Abstract: In one embodiment, the present invention includes a socket for a semiconductor package, where the socket has a frame with a segmented design, where socket streets are located between the segments. One or more of the streets may include a conduit to enable thermal transfer during operation of the semiconductor package. Other embodiments are described and claimed.

Abstract: A method of assembling a package includes aligning a pad chip with a spring chip to form at least one interconnect in an interconnect area, adhering the pad chip to the spring chip so that there is a gap between the pad chip and the spring chip, dispensing underfill material into the gap to seal the interconnect area from an environment external to the package, and curing the underfill material to form a solid mold.

Abstract: Various technologies for cooling a computer system are described. In accordance with one described embodiment, a fan assembly system for a computer comprises a fan operable for cooling the computer and a fan duct coupled with the fan. The fan duct comprises a number of attaching features. The fan is suspended at least one component of the computer. Moreover, the suspended fan enables air to flow between the fan and the component (e.g., a heatsink) to facilitate cooling of the component.

Abstract: A pressing member is prevented from being damaged by heat, heat dissipation through the pressing member on the higher-temperature side and reduction in thermoelectric conversion efficiency due to it are suppressed, and good electrical conduction is achieved even if thermoelectric conversion elements and electrodes are not cemented through a binder. A lower-temperature side electrode 6 is projecting toward a higher-temperature side substrate 8 and the lower-temperature side electrode 6 is formed with slope faces 6a, 6b, and an angle ? of each of the slope face to a surface of a lower-temperature side substrate 7 is an acute angle.

Abstract: A pressure-contact power semiconductor module is arranged on a heat sink. The power semiconductor module is used with at least one substrate provided with conductor tracks and power semiconductor components. The module has a mounting body, on the underside of which the at least one substrate is arranged, and which is formed with cutouts. The module also includes a load connection element which is provided with contact feet that project away from strip sections and make pressure contact with the conductor tracks. The power semiconductor module additionally has a dimensionally stable cover, which covers the mounting body on all sides and is connected to the mounting body by means of snap-action latching connections. At least one pad element is restrained between the cover and the strip sections of the load connection elements.

Abstract: A semiconductor device includes a semiconductor module that has a joint surface, a first fitting portion and a second fitting portion provided on the joint surface of the semiconductor module, the second fitting portion having a shape different from the first fitting portion; and a radiating fin that has a joint surface, a third fitting portion and a fourth fitting portion provided on the joint surface of the radiating fin, the fourth fitting portion having a shape different from the third fitting portion. The semiconductor module is bonded to the radiating fin so that the first fitting portion is fitted into the third fitting portion or the third fitting portion is fitted into the first fitting portion, and the second fitting portion is fitted into the fourth fitting portion or the fourth fitting portion is fitted into the second fitting portion.

Abstract: The patterns (or layout), and pattern densities of TSVs described above provide layout of TSVs that could be etched with reduced etch microloading effect(s) and with good within-die uniformity. The patterns and pattern densities of TSVs for different groups of TSVs (or physically separated groups, or groups with different functions) should be fairly close amongst different groups. Different groups of TSVs (or TSVs with different functions, or physically separated TSV groups) should have relatively close shapes, sizes, and depths to allow the aspect ratio of all TSVs to be within a controlled (and optimal) range. The size(s) and depths of TSVs should be carefully selected to optimize the etching time and the metal gap-fill time.

Abstract: A power semiconductor module includes: a circuit board having a metal base plate, a high thermal conductive insulating layer, and a wiring pattern; power semiconductor elements electrically connected to the wiring pattern; tubular external terminal connection bodies provided to the wiring pattern for external terminals; and a transfer mold resin body encapsulated to expose through-holes in the metal base plate and used to fixedly attach cooling fins to the face of the metal base plate on the other side with attachment members, the face of the metal base plate on the other side, and top portions of the tubular external terminal connection bodies, to form insertion holes for the attachment members communicating with the through-holes and having a larger diameter than the through-holes, and to cover the one side and side faces of the metal base plate and the power semiconductor elements.

Abstract: A protective modular package cover has first and second fastening sections located at opposing first and second ends with one or more subassembly receiving sections disposed thereto and is configured to fasten the protective modular package cover to a core. Each fastening section has a foot surface located on a bottom surface of a fastening section and configured to make contact with the core, a mounting hole configured to receive a fastener, and a torque element. Each subassembly receiving section is configured to receive a subassembly and has a cross member formed along the underside of the protective modular package cover. Activation of the first torque element transfers a downward clamping force generated at the fastening element to a top surface of one or more subassemblies disposed in the one or more subassembly receiving sections via the cross member of each of the one or more subassembly receiving sections.

Abstract: Flip chip packages having warpage control and methods for fabricating such packages are described. In one embodiment, the flip chip package comprises a package substrate; a chip coupled to the package substrate; and a ring structure coupled to the package substrate and positioned laterally around the periphery of the chip so that a surface of the chip is exposed, wherein the ring structure comprises one or more compressive members, each of the one or more compressive members compressively opposed to a surface of the package substrate to counter or absorb stresses in the package substrate.

Abstract: A heat conducting apparatus adopts a design of two oblique slide blocks disposed between and contacted with two objects for conducting heat from one of the two objects to another. The two oblique slide blocks can be adjusted freely according to the different heights of the two objects to conduct the heat produced by a heat generating component to a heat dissipating structure.

Abstract: A heatsink device includes an insulating board having at least one periphery, a first face and a second face, at least two conductive plates mounted on at least one of the first face and the second face of the insulating board, and at least one heat source mounted on the insulating board and having two conducting poles conducted with the at least two conductive plates. Thus, the at least two conductive plates are directly connected with the two conducting poles of the at least one heat source so that the at least two conductive plates can carry away the heat produced by the at least one heat source so as to provide a heatsink effect to the at least one heat source.

Abstract: Apparatus may be provided including a high power light emitting diode (LED) unit, at least one printed circuit board, and an interfacing portion of a heat sink structure. The high power LED unit includes at least one LED die, at least one first lead and at least one second lead, and a heat sink interface. The at least one printed circuit board includes a conductive pattern configured to connect both the at least one first lead and the at least one second lead to a current source. The interfacing portion of the heat sink structure is that portion through which a majority of heat of the heat sink interface is transmitted. The interfacing portion is directly in touching contact with a majority of a heat transfer area of the heat sink interface.

Abstract: A printed circuit board (PCB) assembly is provided that includes a PCB, an integrated circuit package, an electromagnetic interference (EMI) shield ring, and a heat sink lid. A first surface of the package is mounted to a first surface of the PCB. The EMI shield ring is mounted to the first surface of the PCB in a ring around the package. A first surface of the heat sink lid includes a recessed region and first and second supporting portions separated by the recessed region. The heat sink lid is mated with the EMI shield ring such that the package is positioned in an enclosure formed by the EMI shield ring and the recessed region of the heat sink lid. A second surface of the package may interface with a surface of the recessed region.

Abstract: An exemplary semiconductor die package of the invention has a metal-oxide substrate disposed between a first surface of a semiconductor die and a heat-sinking component, with a conductive die clip or one or more electrical interconnect traces disposed between the metal-oxide substrate and the first surface of the semiconductor die. The heat-sinking component may comprise a heat sink, or an adaptor plate to which a heat sink may be coupled. The conductive die clip or electrical trace(s) provides electrical connection(s) to the first surface of the semiconductor die, while the metal-oxide substrate electrically insulates the die from the heat-sinking component, and provides a path of high thermal conductivity between the die and the heat-sinking component. The second surface of the semiconductor die may be left free to connect to a circuit board, or a leadframe or interconnect substrate may be attached to it.

Abstract: The invention provides a semiconductor high-power light-emitting module including a heat-dissipating member, a heat-conducting device, and a diode light-emitting device. The heat-dissipating member includes an isolator member coupled to a first side of the heat-dissipating member. The heat-dissipating member has a second side opposite to the first side. The isolator member has a third side opposite to the first side. The environment temperature at the third side is higher than that at the second side. The heat-conducting device has a flat end and a contact portion tightly mounted on the heat-dissipating member. The diode light-emitting device is disposed on the flat end of the heat-conducting device. The semiconductor light-emitting module of the invention, applied to a headlamp of an automobile, has properties of saving electricity and long life, and furthermore the capability of integrating the heat-dissipating member into a shell of the automobile is both artistic and practical.

Abstract: A semiconductor die package, and methods of making the same. The package includes a leadframe and a clip structure. The clip structure is formed, such that a portion of the clip structure points towards the semiconductor die and is coplanar with the leadframe. The semiconductor die package further includes a housing material covering at least a portion of the leadframe, the semiconductor die, and the clip structure. The housing material has an external recess that holds a portion of the clip structure.

Abstract: A power electronic assembly includes a pair of thermally and electrically conductive plates, and semiconductor switching elements positioned between contact surfaces of the pair of conductive plates. A first of the semiconductor switching elements is positioned at a first region of the conductive plates, and a second of the semiconductor switching elements positioned at a second region of the conductive plates. At least one of the conductive plates includes an aperture positioned between the first region and the second region of the conductive plates, such that in a compressed state, a contact surface of the conductive plate associated with the first region is substantially parallel to and offset from that of the second region in a direction parallel to the direction of compression.

Abstract: The present invention relates to an electronic device for providing improved heat transporting capability for protecting heat sensitive electronics and a method for producing the same. The present invention also relates to uses of the electronic device for various applications such as in LED lamps for signalizing, signage, automative and illumination applications or a display apparatus or any combinations thereof.

Abstract: A semiconductor module includes a semiconductor package generating thermal energy, a heat collecting member transferring thermal energy from the semiconductor package to a heat collection area in the heat collecting member, a heat radiating member transferring thermal energy received from the heat collecting member and package to the outside, and a thermoelectric device transferring thermal energy through the heat collection area to the heat radiating member via the thermoelectric effect. The heat collecting member and heat radiating member may be otherwise insulated so thermal energy is transferred and controlled by the thermoelectric device. The package may be a dynamic random access memory (DRAM), microprocessor, central processing unit (CPU), graphic processing unit (GPU), or flash memory. The heat radiating member may be an external case of a solid state disk (SSD), and the thermoelectric device may be a Peltier cooler controlled through a power line.

Abstract: A system for clamping a heat sink that prevents excessive clamping force is provided. The system may include a heat sink, a semiconductor device, a printed circuit board, and a cover. The semiconductor device may be mounted onto the circuit board and attached to the cover. The heat sink may be designed to interface with the semiconductor device to transfer heat away from the semiconductor device and dissipate the heat into the environment. Accordingly, the heat sink may be clamped into a tight mechanical connection with the semiconductor device to minimize thermal resistance between the semiconductor device and the heat sink. To prevent excessive clamping force from damaging the semiconductor device, loading columns may extend between the cover and the heat sink.

Abstract: An integrated circuit device includes an integrated circuit formed in a semiconductor die and an integrated circuit package containing the semiconductor die. The integrated circuit package includes a thermal interface material substantially between the semiconductor die and a heat spreader of the integrated circuit device for conducting heat from the semiconductor die to the heat spreader. The thermal interface material includes diamond particles and has a thickness selected to reduce capacitance between the semiconductor die and the heat spreader over that of a conventional integrated circuit device without reducing the rate of thermal conduction from the semiconductor die to the heat spreader. As a result, the integrated circuit device has improved electrostatic discharge immunity.

Abstract: An electronic component module includes at least one first multi-layer circuit board module (21, 22; 31, 32; 41, 42) and a cooling arrangement (23, 33, 43), the cooling arrangement (23, 33, 43) being in contact with an upper side of the circuit board module (21, 22; 31, 32; 41, 42). The cooling arrangement (23, 33, 43) is designed such that waste heat generated during operation of the electronic component module (2, 3, 4) is extracted in a lateral direction with relation to the arrangement of the circuit board module (21,22; 31, 32; 41, 42) by the cooling arrangement (23, 33, 43).

Abstract: The present invention is an apparatus for integrating multiple devices. The apparatus includes a substrate having a first via and a second via, a semiconductor chip positioned on a top portion of the substrate and positioned between the first via and the second via, first and second bumps positioned on the semiconductor chip, and an interposer wafer having a first interposer spring assembly and a second interposer spring assembly, the first interposer spring assembly having a first interposer spring and a first electrical connection attached to the first interposer spring, and the second interposer spring assembly having a second interposer spring and a second electrical connection attached to the second interposer spring.

Abstract: A cooling fan housing assembly for assembling to a heat sink includes a boosting portion and a connecting portion extended from the boosting portion. The connecting portion includes a first part and a second part for covering on and fixing to the heat sink. The second part of the connecting portion is provided with at least one hooking section for firmly hooking to the heat sink, so that a cooling fan supported on the cooling fan housing assembly can be quickly assembled to the heat sink without the risk of producing vibration during the operation of the cooling fan. Therefore, the cooling fan housing assembly not only reduces assembling labor and time and manufacturing cost, but also enables stable operation of the cooling fan.

Abstract: A semiconductor assembly includes a first subassembly comprising a heat sink and a first patterned polymer layer disposed on a surface of the heat sink to define an exposed portion of the first surface. The exposed portion of the first surface extends radially inward along the heat sink surface from the first layer. The subassembly also includes a second patterned polymer layer disposed on a radially outer portion of the first patterned polymer layer. The first and second layers define a cell for accommodating a power semiconductor die. Solder material is disposed on the exposed portion of the heat sink surface and in the cell. A power semiconductor die is located within the cell on a radially inward portion of the first layer and thermally coupled to the heat sink by the solder material.

Abstract: A multi-specification fixing module used at a motherboard and a cooler. The multi-specification fixing module includes a plurality of the fixing sheet and a specification adjusting base plate. Each of the fixing sheets has a fixing hole. The specification adjusting base plate includes a plurality of adjusting portions at a periphery of the specification adjusting base plate. Each of the adjusting portions has an adjusting guiding rail group and an adjusting portion hole. The positions of the fixing sheets are adjusted according to the size of the cooler body to install the fixing sheets in the adjusting guiding rail groups, and the installing fixing accessories are connectedly fixed at the motherboard holes via the fixing holes and the adjusting portion holes to fix and install the cooler body above the socket.

Abstract: The present invention relates to a clamping device for compression clamping of one or more semiconductor devices and associated semiconductor components with a desired compression force equally distributed across the opposing surfaces of the devices and associated components. The semiconductor devices and components are located between opposing jaws that are joined together by at least two tie rods, which compressively load the opposing jaws to apply the desired compression force to the semiconductor devices and components. The desired compression force is first achieved in even distribution between independent clamp pressure set point assemblies and the first jaw, where each of the independent clamp pressure set point assemblies is associated with one of the tie rods.

Abstract: A power drive unit is configured to comprise a heat sink, a power module pressed by a press member to the heat sink to be fastened thereto and a spring member that has a substantially circular shape and is installed between the power module and the press member. With this, the power module can be fastened to the heat sink without incurring layout limitation, degradation of heat release performance and the like. Also, since the power drive unit further includes a projection that protrudes from the press member to be engaged with an engagement hole bored at the center of the spring member, engagement of the projection of the press member with the engagement hole of the spring member functions to prevent displacement of the press member relative to the spring member, thereby making loads acting on the power modules uniform.

Abstract: Methods for fabricating flip-chips are disclosed. In an exemplary method, a flip-chip is mounted, active-surface downward, onto a substrate such that a back-side of the flip-chip is facing upward and electrical connections are made between the chip and an upward-facing surface of the substrate. An adhesive is applied to selected regions not occupied by the flip-chip. A heat-spreader is applied to contact the applied adhesive without contacting the back-side of the flip-chip, leaving a gap between the heat-spreader and the back-side of the flip-chip. The heat-spreader defines at least one through-hole that, when the heat-spreader is placed, is within a perimeter of the flip-chip. The adhesive is cured, and a thermal-insulating material (TIM) is applied through the at least one through-hole so as to fill the gap with the TIM. The methods substantially reduce the probability of die damage that otherwise occurs during attachment of heat-spreaders.

Abstract: A semiconductor device includes a semiconductor element mounted on a substrate; at least one electronic part arranged around the semiconductor element; and a heat radiation member bonded to a backside of the semiconductor element by a bonding material. The heat radiation member has an isolation part extending between an outer circumference of the semiconductor element and the electronic part.

Abstract: A heat sink includes a first adhesive layer, and a heat dissipation layer disposed on the first adhesive layer, and has ventilation ports that extend therethrough including through the first adhesive layer and the heat dissipation layer. The heat sink forms an outermost part of a semiconductor package. Thus, when the heat sink is bonded via its adhesive layer to underlying structure during a manufacturing process, the ventilation ports allow air to pass therethrough. As a result, air is not trapped in the form of bubbles between the heat sink and the underlying structure.