Abstract: In some embodiments, a semiconductor cooling apparatus includes a monolithic array of cooling elements. Each cooling element of the monolithic array of cooling elements is configured to thermally couple to a respective semiconductor element of an array of semiconductor elements. At least two of the semiconductor elements have a different height and each cooling element independently flexes to conform to the height of the respective semiconductor element.

Abstract: Apparatuses are provided for compressing a thermal interface material between a heat generating electronic component and a cooling electrical component. Embodiments include a rotatable latch fastened to the heat generating electrical component, the rotatable latch including a hook; wherein when the rotatable latch is in an engaged position, the hook of the rotatable latch engages a pin extending from the cooling electrical component such that the thermal interface material adhered to the heat generating electrical component is coupled to the cooling component; when the rotatable latch is in an unengaged position, the hook of the rotatable latch is not engaged with the pin of the cooling electrical component; a load screw; wherein when the rotatable latch is in the engaged position, threading the load screw into the rotatable latch moves the rotatable latch into a locked state; and a spring leaf that is coupled to the heat generating electrical component.

Abstract: A method and apparatus are provided for implementing loading and heat removal for a hub module assembly. The hub module assembly includes a hub chip and a plurality of optical modules attached by land grid array (LGA) assembly disposed on a top surface metallurgy (TSM) LGA residing on a hub ceramic substrate. The ceramic substrate is connected to a circuit board through a bottom surface metallurgy (BSM) LGA assembly. A base alignment ring includes a plurality of alignment features for engaging the circuit board and locating an LGA interposer of the BSM LGA assembly. Each of a pair of top alignment rings includes cooperating alignment features for engaging and locating a respective LGA interposer of respective LGA sites of the TSM LGA assembly. The two LGA interposers of the TSM LGA assembly align, retain, and make the electrical connection between the optical modules and the hub chip.

Abstract: An electric power converter has a semiconductor module having a semiconductor element integrally and at least a pair of semiconductor terminals, a capacitor electrically connected to the semiconductor module, and a cooler that thermally contacts to at least one of a plurality of capacitor terminals provided in the capacitor. The capacitor terminals that thermally contact the cooler are arranged between the cooler and the capacitor.

Abstract: A heat sink assembly is provided for a pluggable module. The heat sink assembly includes a heat sink having a module side and an end surface that intersects the module side. The module side is configured to thermally communicate with the pluggable module. A holder extends from the end surface of the heat sink. A thermal interface material (TIM) layer extends on the module side of the heat sink. The TIM layer is configured to engage the pluggable module. The TIM layer includes an end that is engaged between the end surface and the holder of the heat sink.

Abstract: A module is electrically connectable to a computer system. The module includes a first surface and a first plurality of circuit packages coupled to the first surface. The module further includes a second surface and a second plurality of circuit packages coupled to the second surface. The second surface faces the first surface. The module further includes at least one thermal conduit positioned between the first surface and the second surface. The at least one thermal conduit is in thermal communication with the first plurality of circuit packages and the second plurality of circuit packages.

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: A semiconductor device includes a semiconductor module and a pressing member configured to press the semiconductor module to a heat radiation member. The semiconductor module includes switching elements, conductors, and a molded member. Each of the switching elements is mounted on a corresponding one of the conductors. The molded member covers the switching elements and the conductors. More than three of the switching elements are disposed around the pressing member. The switching elements are disposed in a region in which a pressure generated between the semiconductor module and the heat radiation member by pressing with the pressing member is greater than or equal to a predetermined pressure with which heat generated from the switching elements is releasable from the semiconductor module to the heat radiation member.

Abstract: A LED chip package including a two-phase-flow heat transfer device, at least one LED chip, a metal lead frame and a package material. The two-phase-flow heat transfer device has at least one flat surface. The LED chip is directly or indirectly bonded or adhered to the flat surface of the two-phase-flow heat transfer device. Heat generated by the LED chip can be easily conducted away from the LED chip by the two-phase-flow heat transfer device such as a heat pipe, a vapor chamber and the like so as to prevent heat from accumulating in the LED chip thereby extending the service duration of the LED chip and to prevent the LED chip from deterioration of the light emitting performance caused by the accumulation of heat.

Abstract: A circuit board assembly includes a motherboard defining a number of plug slots, and a fixing mechanism for securing a heat sink. The fixing mechanism is positioned between two adjacent plug slots, and includes a support member mounted on the motherboard, two fixing brackets mounted on opposite ends of the support member, two bars rotatably connected to the fixing brackets, and a connection member detachably connected to the support member by the bars. The opposite borders of the support member extend in the same direction substantially parallel to the plug slots, and the support member forms four connecting portions for securing the heat sink on opposite sides thereof, and the connecting portions are located between the opposite borders.

Abstract: An electronic circuit device includes a bus bar, a base component and an electronic component. The bus bar has an external connector terminal capable of receiving electric power from an external power source. The base component has a metallic heat radiation portion and is disposed to oppose the bus bar. The electronic component is held between the bus bar and heat the radiation portion of the base component. The bus bar further includes fixing terminals extending toward the base component. The fixing terminals are fixed to the base component to constitute fixing portions. The fixing portions are configured to have elasticity and exert a restoring force such that a distance between the bus bar and the base component reduces. The electronic component is in pressure contact with the bus bar and the base component by the restoration force of the elasticity of the fixing portions.

Abstract: An electronic apparatus includes: a housing; a circuit board accommodated in the housing; a face mounting component mounted on the circuit board; a heating component mounted on the circuit board; a reinforcing member having a thermal conductivity and configured to reinforce a region on the circuit board on which the face mounting component is mounted; and a radiation unit extended from the reinforcing member and connected thermally to the heating component.

Abstract: A heat sink type module includes a mounting seat and a heat sink. The mounting seat includes a supporting plate, and two substantially parallel first side plates extending up from opposite first sides of the supporting plate. A latch protrudes from an inner surface of each first side plate. A heat sink includes a base plate and fins extending up from a top surface of the base plate. The base plate includes two substantially parallel first sides. The latches of the first side plates latch the first sides of the base plate to fix the heat sink.

Abstract: A system to improve an in-line memory module may include an edging carried by the in-line memory module to stiffen, support, protect, and/or aid in handling the in-line memory module. The system may also include guide ribs carried by the edging to facilitate positioning of the in-line memory module during installation. In one embodiment, the system includes a heat spreader to aid in cooling a plurality of heat sources carried by the in-line memory module. The system may further include a compliant member to regulate the heat spreader's positioning relative to the plurality of heat sources.

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: A latch mechanism includes a press portion, two connection portions, and two latch portions. The two connection portions are connected to opposite ends of the press portion correspondingly. Each connection portion includes two connectors. First ends of the two connectors are connected together to form a coupling end to connected to a corresponding end of the press portion. Each latch portion is selectively connected to the second end of one of the two connectors of a corresponding connection portion.

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 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 semiconductor device which includes a semiconductor chip; an electrically conductive base electrode bonded to the lower surface of the chip by a first bonding member; an electrically conductive lead electrode bonded to the upper surface of the chip by a second bonding member; and a first stress relief member for reducing stress developed in the first bonding member due to the difference in thermal expansion between the chip and the base electrode. Both the base electrode and the first stress relief member are in direct contact with the lower surface of the first bonding member. A protrusion is formed upstanding from the base electrode in direct contact with the first bonding member, and the first stress relief member surrounds a circumferential portion of the protrusion.

Abstract: Methods and apparatus for improved electrical, mechanical and thermal performance of stacked IC packages are described. An IC package comprises a substrate, a first die, a second die, and an interposer with an opening in a first surface of the interposer configured to accommodate the first die. The first IC die is attached a first surface of the substrate. The interposer is mounted on the first surface of the substrate such that the first IC die is placed within the opening in the interposer. The second die is mounted on a second surface of the interposer. Wire bonds couple bond pads on the first surfaces of IC die are coupled to the first surface of the substrate. A mold compound encapsulates the first IC die, the second IC die, the interposer and the wire bonds.

Abstract: An exemplary heat sink assembly includes a heat sink and a clip resiliently clamping the heat sink on a printed circuit board. The heat sink includes a base and a plurality of first fins and two central second fins extending upwardly from the base. The clip includes a locating portion fixed between the second fins of the heat sink, a pair of elastic portions extending outwardly from opposite ends of the locating portion and oriented towards substantially opposite directions, and two hooks extending outwardly from ends of the operating members, respectively. An acute included angle is formed between each elastic portion and the locating portion of the clip in an original relaxed position, and the acute included angles become approximately right angles when the clip is preassembled in the heat sink with the elastic portions abutting the second fins.

Abstract: A semiconductor package system is provided including mounting a semiconductor chip to a substrate having a substrate opening. A first heat slug is attached to a first surface of the semiconductor chip at least partially encapsulating the semiconductor chip. A second heat slug is attached to the second surface of the semiconductor chip through the substrate opening.

Abstract: A heat sink assembly mount is provided. Generally the invention has a frame clip and a spring clip. The frame clip has one or more inwardly extending tabs and two or more vertically extending side portions. The one or more tabs are sized to fit over and removably couple to a heat producing device. The distance between the two or more vertically extending side portions is sized to hold a base portion of a heat sink and prevent horizontal motion of the heat sink. The spring clip couples to the frame clip and has a spring bias sized to produce a vertical force that presses the heat sink against a heat producing device.

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: A computer system includes a chassis, a motherboard secured to the chassis, and a heat sink. A chip is mounted on the motherboard. A securing component secured to the motherboard adjacent the chip. The securing component defines an opening. Two positioning posts are located on the motherboard and adjoin two opposite edges of the opening. Each positioning post defines a fastener hole. A heat sink includes a main body and a fin portion located on the fin portion. The main body defines two through holes. The main body defines two recesses to expose the through holes. The heat sink is secured to the securing component, by two fasteners engaged in the through holes and the fastener holes.

Abstract: An exemplary heat dissipation device includes a fan having a plurality of first fixing cylinders, a heat sink having a plurality of second fixing cylinders, and a plurality of fasteners fixing the fan to the heat sink. Each of the fasteners includes a screwing post, an elastic member encircling the screwing post, and an annular fastening collar engaging with the screwing post. Each of the fasteners extends through a corresponding first fixing cylinder of the fan and a corresponding second fixing cylinder of the heat sink. The elastic member of each fastener is compressed between the corresponding first fixing cylinder and the corresponding second fixing cylinder.

Abstract: Semiconductor package structures are provided which are designed to have liquid coolers integrally packaged with first level chip modules. In particular, apparatus for integrally packaging a liquid cooler device within a first level chip package structure include structures in which a liquid cooler device is thermally coupled directly to the back side of an integrated circuit chip flip-chip mounted on flexible chip carrier substrate. The liquid cooler device is mechanically coupled to the package substrate through a metallic stiffener structure that is bonded to the flexible package substrate to provide mechanical rigidity to the flexible package substrate.

Abstract: The present invention provides an electric circuit device in which it is possible to achieve simultaneously the improvement of cooling performance and reduction in operating loss due to line inductance. The above object can be attained by constructing multiple plate-like conductors so that each of these conductors electrically connected to multiple semiconductor chips is also thermally connected to both chip surfaces of each such semiconductor chip to release heat from the chip surfaces of each semiconductor chip, and so that among the above conductors, a DC positive-polarity plate-like conductor and a DC negative-polarity plate-like conductor are opposed to each other at the respective conductor surfaces.

Abstract: One embodiment of the present invention sets forth a heat spreader module for dissipating thermal heat generated by electronic components. The assembly comprises a printed circuit board (PCB), electronic components disposed on the PCB, a thermal interface material (TIM) thermally coupled to the electronic components, and a heat spreader plate thermally coupled to the TIM. The heat spreader plate includes an embossed pattern. Consequently, surface area available for heat conduction between the heat spreader plate and surrounding medium may be increased relative to the prior art designs.

Abstract: A heat sink includes a cooling member to dissipate heat, and a fixing member for mounting fasteners. The cooling member includes a base and a number of fins extending from the base. The cooling member and the fixing member are independently formed, and the fixing member is fixed to a bottom of the base of the cooling member via fixing means.

Abstract: A heatsink includes a thermally conductive body including a plurality of fins configured to conduct and dissipate heat. The body is configured to receive a circuit board containing heat-producing electrical components along a width of the body. The heatsink further includes a pivot mechanism pivotally coupled to the body and configured and disposed to contact the heat-producing electrical components. The heatsink further includes a bias device connected to the body and the pivot mechanism and configured to change from a first state to a second state to cause the pivot mechanism to rotate relative to the body to move a contact portion of the pivot mechanism toward the body. The heatsink is configured to receive the heat-producing electrical components between the contact portion of the pivot mechanism and the body, and the bias device is configured to bias the contact portion of the pivot mechanism to urge the heat-producing electrical components against the body when the bias device is in the second state.

Abstract: A thermal module includes a fin assembly, a heat spreader, a heat pipe connected between the fin assembly and the heat spreader, and a securing plate. The securing plate has at least three resilient members secured on a bottom surface thereof. Each of the resilient members has a capability to deform resiliently along a direction perpendicular to the bottom surface of the securing plate to resiliently press the heat spreader to an electronic component.

Abstract: An electronic apparatus comprises a housing that contains a heat-generating component, a heat radiating component and a fan that is adapted to apply air to the heat radiating component and including an inlet port and an outlet port. The electronic apparatus further comprises a support member situated within the housing and arranged so that that the outlet port of the fan faces the heat radiating component. Being coupled to the fan and the heat radiating component, the support member comprises an opening portion to direct air to the fan, where the opening portion is aligned with the inlet port of the fan.

Abstract: According to an aspect of the embodiment, an optical module includes a case, an optical transceiver part in the case, a radiating part on the case; a thermal conductive sheet having a property of transferring and having a first end and second end; a first fixing part for fixing the first end of the thermal conductive sheet to the optical transceiver unit; and a second fixing part for fixing the second end of the thermal conductive sheet to the radiating point.

Abstract: An integrated circuit package system is provided forming a substrate having an integrated circuit die thereon, thermally connecting a heat slug and a resilient thermal structure to the integrated circuit die, and encapsulating the resilient thermal structure.

Abstract: One embodiment provides a vapor chamber having an outwardly protruding boss. A frame surrounds a perimeter of the vapor chamber. A plurality of heat sink fins extend from the frame. A cross-member spans the frame across the vapor chamber wall and defines an opening through which the boss protrudes at least slightly beyond the cross-member. The heat sink may be secured to a socket on a circuit board, with the boss engaging a processor positioned in the socket. In response to securing the heat sink, the boss compresses flush with the cross-member and the cross-member engages the processor to seat the processor in the socket. The opening in the cross-member reinforces the boss against outward deformation.

Abstract: A semiconductor device has a substrate. A die is attached to a first surface of the substrate. A heat sink is provided having an approximately planer member and support members extending from the planer member. The support members are attached to the first surface of the substrate to form a cavity over the die with the planer member positioned above the die. An encapsulant is provided for encapsulating the device, wherein an exterior surface of the planer member is exposed. A non-tapered opening is formed in the planer member. The encapsulant is injected through the opening to encapsulate the cavity and the encapsulant will partially fill the non-tapered opening.

Abstract: Embodiments described herein may include example embodiments of methods, apparatuses, devices, and/or systems for heat dissipation.

Abstract: A fastening assembly used for securing a heat dissipation device to a printed circuit board, comprises a sleeve, an inserting device extending through the sleeve, a spring encircling the inserting device and received in the sleeve, and a supporting device inserted in the sleeve. The inserting device engages with a back plate below the printed circuit board. The sleeve is integrally formed of plastic and comprises a hollow body, a resilient portion extending from an outer surface of the body and pressing a bottom of the heat dissipation device upwardly, and four supporting portions extending from the outer surface of the body and pressing a top of the heat dissipation device downwardly. The supporting device is inserted between the body and the resilient portion, and abuts against the resilient portion, to thereby reliably keep the resilient portion at its locked position.

Abstract: A heat dissipation device includes a heat sink, a heat absorbing plate, a heat pipe thermally connecting the heat sink and the absorbing plate, a pressing plate secured to the heat absorbing plate and pressing an end of the heat pipe to the heat absorbing plate, and a plurality of fasteners extending through the pressing plate to secure the end of the heat pipe, the heat absorbing plate and the pressing plate to a printed circuit board. Each of the fasteners includes a connecting portion extending through the pressing plate, a first operating portion extending from the connecting portion, and a second operating portion formed at an end face of the first operating portion. The first and second operating portions are configured to be operated by different tools.

Abstract: An electric assembly includes a heat sink defining a through hole and a notch communicating with the through hole; a circuit board defining a fixing hole; and a fastening assembly. The fastening assembly includes a fastener comprising a stem, a head connected one end of the stem, and a clamp connected to an opposite end of the stem; a limiting member comprising a main body slideably disposed on the stem and a limiting portion extending from the main body, the main body received into the through hole, and the limiting portion engageably inserted into the notch; and an elastic member disposed around the stem and between the head and the main body. Wherein the limiting portion is capable of sliding out of the notch and against the heat sink to compress the elastic member.

Abstract: A fastener comprises a fastener post, a clasping element and an elastic element. The fastener post comprises a head, a post body and a threaded portion. The post body has a first extension section connecting with the head, a second extension section connecting with the threaded portion and a recess section connected between the first and second extension sections. The clasping element comprises an annular clasping body, a first clasping portion axially extending from the clasping body and a second clasping portion extending outwardly and then downwardly from the clasping body. The clasping body encloses the post body, the first clasping portion engages with the recess section of the post body, and the second clasping portion engages with the heat sink. The elastic element is set around the post body and located between the head and the clasping body.

Abstract: An apparatus includes a base plate, a circuit board mounted on the base plate, and a supporting bracket adapted to support a heat dissipating device. A securing post protrudes from the base plate and defines a securing groove. The supporting bracket is disposed above the circuit board. Two elastic securing claws extend from the supporting bracket. The securing post is wrapped by the two elastic securing claws, and the securing claws engage the securing groove of the securing post.

Abstract: A mounting structure, in which semiconductor package 1 and heat sink 8 for dissipating heat generated from semiconductor package 1 are mounted on mounting board 3. The rear surface of semiconductor package 1 is bonded to the front surface of mounting board 3 facing the rear surface. Heat sink 8 is brought into contact with the rear surface of semiconductor package 1 via through-ole 5 formed on mounting board 3. Semiconductor package 1 and heat sink 8 are pressed to each other by the elastic force of clip 6.

Abstract: A strain reduction fixing structure includes a counterbore formed around a through-hole on a printed circuit board through which a fixing shaft for fixing the printed circuit board to a protection plate member penetrates.

Abstract: A heat-dissipating mechanism with a thermo-conducting sheet is arranged between a pluggable optical transceiver and a heat sink. One of the optical transceiver and the heat sink includes the thermo-conducting sheet. The heat sink is assembled with a cage to be movable vertically and against a downward force. The optical transceiver includes a projection that comes in contact with the heat sink. The heat sink includes a rail with a pocket. When the transceiver is inserted into the cage, the projection first runs along the rail to lift the heat sink upward; subsequently, the projection is set within the pocket to allow the thermo-conducting sheet to contact the transceiver.

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: A power semiconductor module that includes a substrate having at least one power semiconductor element; a heat sink for dissipation of heat from the at least one power semiconductor element and a housing having a cutout which is arranged on a lower face of the housing facing the heat sink and holds the substrate; and to a method for production of such power semiconductor modules. The power semiconductor module has at least one holding element, which engages in a recess, which is associated with the at least one holding element, on the lower face of the housing and is designed such that it limits any movement of the substrate in the direction of the lower face of the housing.

Abstract: A method and associated assembly for cooling electronic heat generating components of a computer including dual-in-line memory (DIMM) array(s) is provided. The assembly comprises a cooling component having a plate with a first and a second (reverse) side, thermally coupling to the heat generating components including the DIMM array(s). The first plate side has a coolant conduit connected at one end to a supply manifold via flexible tubing and at another end to a return manifold via another flexible tubing such that when coolant is supplied, the coolant circulates from the supply manifold to the return manifold by passing through said first plate's conduit.

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.