Abstract: [Object] To incorporate more semiconductor elements in a small-sized lightweight power semiconductor module provided in an arc discharge device. [Means for Settlement] A power supply unit of an arc discharge device includes a semiconductor module 1, and a radiator fitted onto the semiconductor module 1. The semiconductor module 1 includes a module casing 2, and common units 3a to 3c retained by the module casing 2. Each of the common units 3a to 3c has: a ceramic substrate 50 having a circuit surface disposed with a semiconductor element 54, and a radiation surface on a side opposite to the circuit surface; and a package 35 that exposes the radiation surface, and seals the circuit surface with heat resistant resin. The radiator is fitted onto the module casing 2 to be thereby brought into abutting contact with all of the radiation surfaces of the common units 3a to 3c. Based on such a configuration, more semiconductor elements can be incorporated in a small-sized lightweight power semiconductor module.

Abstract: An electronic module includes a printed circuit board with a heat producing electrical component assembled in an insulating housing. The component is adjacent a thermally conducting heat sink with a thermally conductive material disposed therebetween. Integral with the heat sink is a thermally conductive runner, partially encased in the housing wall, connecting the heat sink to a thermally conductive port. The port is coupled to a base structure when the housing is attached to the base, forming a heat conduction path from the component to the base. This conductive path may also provide an electrical ground path from the printed circuit board to the base.

Abstract: A method and structure of improving thermal dissipation from a module assembly include attaching a first side of at least one chip to a single chip carrier, the at least one chip having a second side opposite of the first side; grinding the second side of the at least one chip to a desired surface profile; applying a heat transfer medium on at least one of a heat sink and the second side of the at least one chip; and disposing the heat sink on the second side of the at least one chip with the heat transfer medium therebetween defining a gap between the heat sink and the second side of the at least one chip. The gap is controlled to improve heat transfer from the second side of the at least one chip to the heat sink.

Abstract: In one embodiment a thermal dissipation heat slug sandwich includes a circuit board, a circuit package having an integrated heat slug mounted to an obverse side of the circuit board, and a lower heat sink plate on a reverse side of the circuit board thermally coupled to the heat slug and a housing enclosing the circuit board An upper heat sink plate may be mounted to the obverse side of the circuit board to cover the circuit package. The upper heat sink plate thermally coupled to the lower heat sink plate through the circuit board. An insulating cover may also be provided to redirect radiant heat from the circuit package to the housing.

Abstract: To realize a integrally constructed cooler of the heat pipe type which ensures the achievement of sufficient cooling capacity and the realization of a simple, compact and inexpensive cooler, that is especially low in height, employing and incorporating ingeniously a heat pipe, there is provided a heat pipe type cooler comprising: a heat receiving plate; a heat radiator having a configuration of a plurality of horizontally oriented vertically spaced heat radiation plates; and a heat pipe H having a generally U-shaped or V-shaped profile, the middle portion of which is secured to the heat receiving plate; and wherein each end of the heat pipe H passes through the heat radiation plates.

Abstract: A heat dissipation device includes a heat sink, a plurality of heat pipes extending in the heat sink, a heat-conducting plate attached to the heat pipes, and a mounting member located between the heat sink and the heat-conducting plate and firmly securing the heat pipes to the heat-conducting plate. The mounting member includes a mounting base and a mounting board mounting on the mounting base. The heat pipes extending through the mounting base are received in the heat-conducting plate. The mounting board spanning the mounting base and the heat pipes press the heat pipes towards the heat-conducting plate via fasteners extending through the mounting base and screwing in the mounting board, whereby the heat pipes have an intimate contact with the heat-conducting plate.

Abstract: An apparatus for mounting a plurality of heat sinks onto a circuit board during testing while the circuit board is tested in a fixed manufacturing station. The apparatus has a polygonal shaped frame with a size that is limited to an area on the circuit board which contains a plurality of data processing elements to be cooled. At least four apertures are on the frame, wherein each of the apertures corresponds to a different one of the plurality of data processing elements to be cooled. A slot is positioned on the frame to receive oversized processing elements. At least four pillars extend from the frame and mount into mounting holes provided on the circuit board. The apertures on the frame support the heat sinks above the data processing elements to be cooled. No additional screws, adhesives, clips or other fixing mechanisms are required to secure the heat sinks.

Abstract: A heat sink assembly includes a fixing base and a heat sink mounted on the fixing base. The fixing base has a bottom face attached to an electronic component mounted on a printed circuit board. The fixing base includes a pair of hooks extending from a rear side thereof and engaging with a support beam fixed to the printed circuit board. A pair of sleeves extend from a front side of the fixing base and two fasteners are received in the sleeves and threadedly engage with the printed circuit board. The rear and front sides of the fixing base are firmly secured to the printed circuit board, whereby the heat sink mounted on the fixing base can dissipate heat from the electronic component via the fixing base.

Abstract: The invention relates to an inverter casing, said inverter casing comprising in the bottom at least one depression for receiving heat dissipating electric components, coils in particular.

Abstract: A semiconductor module mounted on a vehicle is disclosed. The semiconductor module includes a semiconductor element, a forced-cooling type cooler, and a heat mass. Heat generated in the semiconductor element is conducted to the cooler. The heat mass is joined onto the semiconductor element, so as to be thermally coupled to the semiconductor element. The heat mass is formed such that the thermal resistance of a part of the heat mass that corresponds to a high temperature part of the semiconductor element in a heat generating state is lower than the thermal resistance of a part of the heat mass that corresponds to a lower temperature part of the semiconductor element.

Abstract: Provided are a low-temperature-cofired-ceramic (LTCC) package and a method of manufacturing the same. The LTCC package includes: an LTCC substrate including a plurality of LTCC layers and a recess in which a device is mounted; a thermal conductive element adhered onto a first LTCC layer exposed by the recess using a first thermal conductive adhesive member; the device adhered onto the thermal conductive element using a second thermal conductive adhesive member; and a connection member for electrically connecting the device with the LTCC substrate. In the LTCC package and the method, portions of the LTCC layers disposed under a high-heating device except a lowermost LTCC layer contacting a heat sink, which correspond to a thermal transmission path, are removed and replaced by a higher thermal conductive material to minimize heat dissipation resistance and heat resistance caused by thermal conduction.

Abstract: A mixture for heat storage devices has a phase change material and particulate expanded graphite. The material mixtures are produced by mixing phase change material and expanded graphite as powders or in molten form, and shaping the mixtures into shaped bodies.

Abstract: A machine for passively removing heat generated by an electronic circuit board is disclosed. In a typical embodiment an electronic circuit board of any type or size is comprised of electronic components producing heat during operation. High thermal conductivity moldable pads applied to both sides of the electronic circuit board form a conductive pathway to transport heat away from electronic circuits and components. A two piece rigid heat sink having thin rigid conductive fins on its top base is coupled together forming a cavity into which the computer board/conductive pad assembly fits, thereby forming a second conductive pathway for heat transport away from board features. The thin rigid conductive fins collectively form yet a third conductive pathway for heat transport from the solid base of the two piece rigid heat sink. Exposure of the thin rigid conductive fins to cooler surrounding air provides convective transfer of heat from the fins to ambient air.

Abstract: A heat dissipation assembly for dissipating heat from a heat-generating component includes a first heat sink mounted on the heat-generating component for dissipating heat therefrom, and a second heat sink movably mounted to the first heat sink, to be adjustable relative to the first heat sink. The second heat sink can be moved to a desired position to fit a need of heat dissipation.

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: An electronic module includes a printed circuit board with a heat producing electrical component assembled in an insulating housing. The component is adjacent a thermally conducting heat sink with a thermally conductive material disposed therebetween. Integral with the heat sink is a thermally conductive runner, partially encased in the housing wall, connecting the heat sink to a thermally conductive port. The port is coupled to a base structure when the housing is attached to the base, forming a heat conduction path from the component to the base. This conductive path may also provide an electrical ground path from the printed circuit board to the base.

Abstract: A noise electric current flowing through a heat sink is efficiently discharged to the ground of a printed circuit board to reduce levels of clock signal harmonic noises generated from the heat sink. An electronic device-installed apparatus is provided with a printed circuit board (1), one or more of electronic devices (2, 3) that are mounted on the printed circuit board (1) and that operate in accordance with a clock signal, and a heat sink means set to hold the electronic devices (2, 3) together with the printed circuit board (1). The heat sink means (5) is connected with the ground of the printed circuit board (1) through a connecting unit (6) and a plurality of dielectric components (12), which are independent of the electronic devices (2, 3), are provided between portions of the printed circuit board except those on which the electronic devices (2, 3) are mounted and the heat sink means (5).

Abstract: A heat sink clip (30) includes an elongated resilient main body (31) with two spaced barbs (315) at a first end thereof, a first locking member (33) coupled with a second end of the main body and a moveable second locking member (32) movably coupled with the first end of the main body. The barbs each vertically extend and include a neck (3151) connecting with the main body and a locking end (3152) at a free end thereof. The moveable second locking member includes an operating portion (321) and a locking leg (322) defining two connecting slots (323) therein. Each of the connecting slots includes a longitudinally narrow portion (3231) and a longitudinally wide portion (3232) beside the narrow portion. The barbs enter the connecting slots through the wide portions and the necks are received in the narrow portions.

Abstract: A heat dissipation device for removing heat from an electronic component mounted on a printed circuit board, includes a heat sink and a clip attaching the heat sink onto the printed circuit board. The heat sink has a rectangular base and a plurality of fins extending upwardly from the base. The fins define a receiving channel therein, which is slantwise to two opposite sides of the heat sink. The clip includes a main body placed in the receiving channel and two latching legs extending obliquely and oppositely from two opposite ends of the main body. The two latching legs are located in front of and in rear of the two opposite sides of the heat sink, respectively, and are parallel thereto.

Abstract: A heat dissipation device adapted for dissipating heat from a heat-generating electronic element, includes a plurality of fins assembled together. Each of the fins has a rectangular body and four arch-shaped flanges extending from edges of the body to form four round corners in four corners of the body. Each main body of the fins defines a plurality of locking members thereon to engage with corresponding locking members of a corresponding front fin. The arch-shaped flanges in four respective corners of the fins cooperate with each other to form four arced faces in four corners of the assembled fins along an entire length of the assembled fins.

Abstract: Adapter module securable to a socket frame, integrated circuit module assembly and method for securing a heat dissipation device in direct thermal communication with an integrated circuit module. The socket frame is positioned over a substrate having a land grid array and the frame is secured to the substrate. The frame defines a well for selectively receiving the integrated circuit module in electronic communication with the land grid array. The adapter module is secured to the frame and extends outside the perimeter of the frame. The adapter provides a feature outside the perimeter of the frame for fastening the heat dissipation device. Furthermore, the adapter body is secured to the frame without adding holes through the substrate, such as by extending under the frame to be secured between the frame and substrate, or by extending over the frame to be secured between the frame and fasteners.

Abstract: The invention is directed to a chlorinator mounted inline in a water purification system having a housing having an inlet end and an outlet end and an upper compartment having an electronics section with a controller unit contained within the electronics section and in electrical communication with a power source and an at least one electrolytic plate. The system having a heat sink member in thermal communication with the controller, wherein the flow of the water in the water purification system cools the heat sink member and the controller unit.

Abstract: A heat dissipation device includes a base, a first fin unit and two second fin units arranged on the base. The base has a substrate and two parallel heat spreaders extending integrally and perpendicularly from the substrate. The first fin unit is arranged on the substrate and sandwiched between the heat spreaders. A plurality of first channels are defined in the first fin unit and parallel to the heat spreaders. Each of the second fin units is perpendicularly arranged on the substrate and located at a lateral, outer side of one of the heat spreaders. A plurality of second channels are defined in each of the second fin units and extend along a different direction compared to that of the first channels.

Abstract: According to one embodiment, an electronic apparatus includes a sub-board opposed to a main board, a heat producing component mounted on the sub-board, a heat pipe opposed to the heat producing component, a pressing member including a main part opposed to the heat pipe, and a fixing part extending from the main part, a support member interposed between the main board and the sub-board, and a fixing member which fixes the fixing part of the pressing member to the sub-board, and fixes the sub-board to the support member.

Abstract: A method of making a microelectronic package, and a microelectronic package made according to the method. The method includes: bonding and thermally coupling a plurality of IC dies to an IHS panel to yield a die-carrying IHS panel, and mounting the die-carrying IHS panel onto a substrate panel including a plurality of package substrates by mounting perimeter ribs of the IHS panel to a corresponding pattern of sealant on the substrate panel and by mounting each of the plurality of dies to a corresponding one of the plurality of package substrates to yield a combination including the die-carrying IHS panel mounted to the substrate panel. Other embodiments are also disclosed and claimed.

Abstract: A method and system of cooling an enclosure or motor is disclosed. An exemplary permanent magnet electric motor is formed with an external stator and an internal rotor. The motor controller is in thermal proximity to the motor but is thermally isolated from the motor by an air chamber. In one exemplary embodiment, one or more heat sinks are provided to create efficient heat removal paths. In another exemplary embodiment, one of more heat pipes are located in the system.

Abstract: A light valve device includes a light valve disposed adjacent to a circuit board, and a heat-dissipating structure including a heat-dissipating main body and a heat-dissipating block. The heat-dissipating main body is disposed opposite to the light valve, and is formed with a groove defined by a first contacting surface and two engaging surfaces. The first contacting surface extends in a longitudinal direction perpendicular to the vertical direction and has two opposite longitudinal edges. The engaging surfaces respectively extend from the longitudinal edges and define an open side of the groove opposite to the first contacting surface in the vertical direction. The open side has a width in the transverse direction smaller than that of the first contacting surface. An engaging portion of the heat-dissipating block is disposed in the groove so that a second contacting surface is in contact with the first contacting surface.

Abstract: There is provided a film forming method capable of enhancing adhesion efficiency of a metal powder by use of a low-pressure compressed gas even in the case of spraying the metal powder remaining in a solid-phase state to a substrate, to form a film, the method being a film forming method of spraying a metal powder p in a solid-phase state to a surface 11a of a substrate 11 along with a compressed gas, to form a film 12 of the metal powder p on the surface 11a of the substrate 11, wherein a powder, which at least contains a powder for film formation having an apparent density of 1.4 to 2.0 g/cm3 and an average grain size of not larger than 25 ?m, is used as the metal powder p.

Abstract: A heat sink assembly includes a base frame and a heat sink having a module engagement surface configured to be in thermal communication with an engagement surface of a pluggable module. The heat sink assembly also includes transfer links extending between the heat sink and the base frame. The transfer links are movable to transfer the heat sink with respect to the base frame. The heat sink is movable between a recessed position and an elevated position, wherein the transfer links maintain the heat sink in a predetermined orientation with respect to the engagement surface of the pluggable module as the heat sink is transferred between the recessed position and the elevated position.

Abstract: There is provided a motor control apparatus in which a size of the apparatus can easily be reduced, a work for aligning a power semiconductor module with a substrate can be eliminated and an assembling property can be enhanced. In a motor control apparatus in which a power semiconductor module adhering to a heat sink is mounted on a first substrate, a spacer is provided between the heat sink and the substrate and the power semiconductor module is disposed in the spacer. Moreover, an edge part of a hole has such a structure as to block a space between a terminal protruded from a side portion of the power semiconductor module and the heat sink.

Abstract: A printer is provided with lugs protruding individually from opposite end portions of a heat sink on the upper end side thereof and collar portions disposed individually on axially opposite end portions of a platen roller and configured to contact the lugs of the heat sink, thereby moving the heat sink away from the platen roller against an urging force of a spring, while a pivotable cover is being pivoted to be opened or closed.

Abstract: An electronic device includes a circuit board comprising a first surface and a second surface, a heat sink positioned on the first surface, and a support positioned on the second surface to support the circuit board. The circuit board includes a pair of first locating holes extending through the first surface and the second surface. The heat sink includes a pair of second locating holes corresponding to the first locating holes. The support includes a pair of locating posts projecting from a pair of diagonal corners thereof and extending through the corresponding first and second locating holes to limit unwanted movement of the heat sink and a shim projecting from a center thereof to prevent the circuit board from flexing. Dimensions of the shim are contoured to provide compensation for bending of the support under an applied load.

Abstract: A heat sink includes a plurality of fins parallel to each other. The fins include a top portion having a flange. The opposite ends of each flange are rounded. Two rounded corners are located below the plane defined by the flange.

Abstract: A semiconductor package with a heat dissipating device and a fabrication method of the semiconductor package are provided. A chip is mounted on a substrate. The heat dissipating device is mounted on the chip, and includes an accommodating room, and a first opening and a second opening that communicate with the accommodating room. An encapsulant is formed between the heat dissipating device and the substrate to encapsulate the chip. A cutting process is performed to remove a non-electrical part of structure and expose the first and second openings from the encapsulant. A cooling fluid is received in the accommodating room to absorb and dissipate heat produced by the chip. The heat dissipating device covers the encapsulant and the chip to provide a maximum heat transfer area for the semiconductor package.

Abstract: A retaining device for a heat sink includes a frame, at least an operation member and at least an engaging member. The frame is attached to an upper portion of the heat sink with a projection at two opposite sides thereof and the projection has a contact face. The operation member provides a main operation part and a stir part. The main operation part is disposed on top of the contact face and the stir part is actuated to rotate for the main operation part being capable of moving relative to the contact face. The engaging member further has a follower part piercing the projection with an end of the follower part connecting with the main operation part pivotally and another end of the follower part being joined to a first elastic part and a second elastic part respectively.

Abstract: An apparatus for dissipating heat from a device is provided. The apparatus includes a heat sink having an elongated shape and defining a groove. A heat spreader composed of a non-isotropic thermal conductor is positioned at least partially within the groove of the heat sink and thermally coupled to the heat sink. The heat spreader is oriented such that the thermal conductor propagates heat along a length of the heat sink. A heat channel composed of a non-isotropic thermal conductor is positioned at least partially within the groove of the heat sink and thermally coupled to the heat spreader. The heat channel is oriented to propagate heat towards the heat spreader.

Abstract: A fastening member for fastening a peripheral device in an electronic device casing and performing heat exchange with the peripheral device is presented. The fastening member includes a supporting plate and a pair of side plates. This pair of side plates is respectively disposed on two sides of the supporting plate to support the peripheral device. The side plates can be fastened to the electronic device casing. The supporting plate has a plurality of heat-conductive connecting pieces in contact with the casing for transferring heat generated by the peripheral device to the electronic device casing, so as to perform heat exchange.

Abstract: A connector with a heat sink to prevented a card from being damaged due to friction when the card is inserted or removed includes a frame provided with two guide arms and two elastic members, each guide arm containing two chutes, each chute containing an upper and a lower limit zones; a pressurizing-down mechanism connected to the frame, a leading post received in the chute being disposed on each side arm, and a heat sink being provided on top; card insertion driving the pressurizing-down mechanism to move with its leading post in the chute for the heat sink to contact the card to conduct the heat generated from the card; and the elastic member moving the pressurizing-down mechanism into the upper limit zone to remove the card.

Abstract: Provided is an electronic control device, including: a housing (3) which includes opening portions at both end portions thereof and is made of insulating resin; a heat sink (5) attached to one of the end portions of the housing (3); a power device (2) provided to the heat sink (5); a circuit board (4) which is provided so as to be opposed to the heat sink (5) and formed with an electronic circuit including a control circuit for controlling the power device (2); and a plurality of first conductive plates (6) held in the housing (3), for electrically connecting the circuit board (4) with the power device (2), in which each of the plurality of first conductive plates (6) includes a press fit terminal (6bp) press-fitted into a through hole (4a) formed in the circuit board (4) to be bonded to the circuit board (4) on a surface opposed to the circuit board (4) and to be bonded to respective terminals of the power device (2) on a surface opposed to the heat sink (5).

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: Thermal management is provided for a device. The device may include a substrate having a mounting area on a first surface of the substrate. The device may also include first thermal vias extending from the mounting area to at least an interior of the substrate. The device may also include at least one thermal plane substantially parallel to the first surface of the substrate, the at least one thermal plane being in thermal contact with at least one of the first thermal vias. The device may also include a heat sink attachment area, and second thermal vias extending from the heat sink attachment area to the interior of the substrate, the at least one thermal plane being in thermal contact with the second thermal vias.

Abstract: An electronic device includes a heat generating member arranged in a body, and a heat transmission member of a shape of a three-dimensional body having at least a first surface that is joined to the heat generating member and a second surface that is joined to an inner surface of the body. The first surface of the heat transmission member has an area greater than or equal to an area of the heat transmission member joined to the heat generating member, and an entire area of the second surface is joined to the inner surface of the body.

Abstract: An exemplary heat dissipating fin assembly for clamping the DRAM to dissipate heat includes a number of heat dissipating fins arranged in a stacked fashion and a shaft. Each of the heat dissipating fins defines a pivoting hole and a slot therein. The slots of the heat dissipating fins are configured for receiving the DRAM. The shaft goes through the pivoting hole of each of the heat dissipating fins so as to string the heat dissipating fins. The heat dissipating fin assembly can enhance heat dissipating efficiency of the DRAM and reduce cost greatly.

Abstract: A secure device for a heat sink and CPU includes a main support arm and an operation handler. The main support arm has a first hook section at one end thereof and provides a contact face and a movable second hook section at another end thereof. The operation handle further includes a main operation part and a handle part and the main operation part provides a guide groove with a first end and a second end. The guide groove extends along radial direction of main operation part from the first end to the second end and a uvula is formed between the first end and the second end. The circumferential side of the main operation part defines a press section for touching the contact face and a pivotal shaft is movably joined to the guide groove and the second hook section to actuate the second hook section moving upward or downward to selectively perform engagement or loosening while the pivotal shaft moving along the guide groove between the first and second ends.

Abstract: An electronic component unit includes: a substrate; an electronic component mounted on the surface of the substrate; a heat dissipating member received on the electronic component; a cylinder member having one end coupled to the substrate, the cylinder member having the other end defining an opening opposed to the heat dissipating member; and a piston member having one end coupled to the heat dissipating member, the piston member having the other end inserted in the cylinder member through the opening to establish a closed decompressed space inside the cylinder member.

Abstract: A printed circuit board (PCB) assembly is disclosed. The PCB assembly includes a first PCB, a second PCB and a land grid array (LGA). The first PCB includes signal interconnects for transmitting logic signals and power interconnects for transmitting power signals. In contrast, the second PCB includes only power interconnects for transmitting power signals exclusively. The second PCB also has significantly less vias than the first PCB. The second PCB is connected to the first PCB via the LGA.

Abstract: Provided is an electron chip module having a heat sink that can increase heat dissipation efficiency. A bottom surface of a module circuit board and an upper surface of a heat sink are in direct contact with each other by using a metal wire, such that heat generated during the operation of a heat-generating device chip mounted onto the module circuit board can be effectively dissipated to the outside.

Abstract: A clip includes a main body, a pair of locking members integrally formed at opposite ends of the main body, and a securing member secured onto one of the locking members. The one locking member includes an upper portion, a lower portion wider than the upper portion, and a step between the upper and lower portions. The securing member includes a handling portion and an engaging portion extending downwardly from the handling portion. A pair of flanges are formed on the engaging portion facing the main body and abutting the step. A clearance is defined between the flanges and the engaging portion receiving the upper portion. One of the engaging portion and the one locking member forms an engaging hole, and the other one forms a hook engaging into the engaging hole.

Abstract: A heat sink assembly for dissipating heat from an electronic component (12) mounted on a printed circuit board (10) includes a heat sink (20) resting on the electronic component, and a fastener assembly (30) for securing the heat sink to the electronic component. The fastener assembly includes a hollow post (36) having a threaded hole (360) defined therein, a screw (32) threadedly engaged in the threaded hole, a coil spring (34) compressibly disposed between the heat sink and a top portion of the screw, and a latch (38) pivotably engaging with a bottom portion of the post. When the screw moves downwardly towards the printed circuit board, the latch is pushed by the screw to rotate and press the heat sink towards the printed circuit board, thus securing the heat sink to the electronic component.

Abstract: An electronic component module comprising at least one ceramic circuit carrier (2, 3) and a cooling device with at least one heat sink (4), a bonding region arranged between the ceramic circuit carrier (2, 3) and the cooling device adapted for bonding the circuit carrier (2, 3) to the cooling device (4). The bonding region (5, 7; 6, 8) comprises a bonding layer comprised of metal and a eutectic region (7, 8).