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

Abstract: An electronic device includes a casing, an electronic component received in the casing, and a fixing member. The casing includes a cutout defined in a side wall thereof for assembly or disassembly a heat dissipation member into or out of the electronic device. The fixing member is connected to the top wall of the casing. The fixing member includes an elongated pole, a guiding pole connected to an outer end of the elongated pole and located adjacent to the cutout, and a resilient element at an inner end of the elongated pole and located over the electronic component. The resilient element is compressed and abuts the heat dissipation member when the heat dissipation member is assembled into the electronic device to contact with the electronic component.

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

Abstract: An assembly comprises a frame adapted to mount an electronic device having a thickness within a range of thicknesses. The frame is adapted to assemble to a heat sink assembly after the electronic device is mounted. The assembly further comprises at least one spring adapted to secure the electronic device to the frame.

Abstract: An apparatus for dissipating heat from and providing heat to electronic components includes a thermally conductive member having a surface configured to thermally couple with electronic components of an adjacent processing module, and a heating member embedded in the thermally conductive member.

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

Abstract: In a voltage adjuster for a vehicle AC generator which has a cooing member for cooling a circuit portion of the voltage adjuster and in which plural fins of the cooling member are disposed so as to face an air suction hole formed in a case, the cooling member is constructed by assembling a first cooling plate having the same cross-sectional surface in a generating and processing direction and at least a second cooling plate having the same cross-sectional surface in a generating and processing direction and the same cross-sectional surface shape as the first cooling plate, and the fin end surfaces of one cooling plate are abutted on the other cooling plate so as to face the ventilation paths formed by the plural fins of the other cooling plate.

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

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

Abstract: A condenser for a power module combines a plurality of aluminum materials to form a casing equipped with a channel for coolant therein, thus making it possible to keep material costs low. Moreover, thanks to the excellent workability of the aluminum materials, it is possible to adopt a configuration with a complex concave-convex configuration for a superior heat radiation performance. A channel for coolant with high heat radiation performance can also be structured inside the casing. The relatively thick bottom plate secures the rigidity required by the casing, while the relatively thin top plate can have a rigidity intentionally structured lower. In this manner, stress generated on joining surfaces of the condenser and an insulative substrate can be mitigated due to active deformation of the top plate.

Abstract: A heat spreader is provided for use with a memory module. The memory module has at least a first side with a first plurality of integrated circuits thereon. The heat spreader includes a first segment mountable on the memory module to be in thermal communication with a plurality of integrated circuits on the first side, and to be substantially thermally isolated from at least one integrated circuit on the first side. The heat spreader further includes a second segment mountable on the memory module to be in thermal communication with the at least one integrated circuit on the first side that is substantially thermally isolated from the first segment.

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

Abstract: A cooling device for cooling a plurality of switching elements included in each of a converter unit and an inverter unit includes a fin base that serves as a switching element attachment plane on which the switching elements are mounted and a plurality of fins arranged on a plane opposite to the switching element attachment plane. When an electric power converting circuit is a single- or multi-phase bridge circuit including a plurality of sets of legs each formed with a positive-side arm and a negative-side arm, the switching elements constituting the legs of different phases are arranged in a row on the fin base in a traveling direction of a railway electric car.

Abstract: A retention assembly comprises a hinged load plate configured for rotational closure over a component and compression of a pre-compressed spring that distributes force of the spring across the component in tool-less retention of the component.

Abstract: A heat dissipation device is disposed in an electronic device and performs thermal exchange with an electronic component of the electronic device. The heat dissipation device includes a heat sink and a plurality of fluttering slices. The heat sink is attached on the electronic component to conduct the thermal energy of the electronic component. The fluttering slices are disposed on the heat sink, and the fluttering slices are actuated to generate an airflow when the electronic device is moved, so as to disturb the air inside the electronic device, thereby achieving the purpose of improving the thermal dissipation performance.

Abstract: A heat dissipating apparatus for an IC chip, having a structure capable of effectively dissipating heat created by an IC chip to the outside, and a display module including the same are disclosed. In one embodiment, the display module includes a panel that forms an image, a chassis disposed at the rear of the panel to support the panel, at least one IC chip that emits heat mounted on at least one circuit board installed at the rear of the chassis, and a heat dissipating apparatus that dissipates heat emitted by the IC chip to the outside. The heat dissipating apparatus is attached to contact the IC chip, and has a heat conducting chip contact plate, and a heat conducting heat discharging plate formed in one piece with a plurality of mutually proximal joining portions joined to the chip contact plate, and a plurality of heat dissipating portions bent to protrude outward from the joining portions to connect the joining portions.

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

Abstract: A semiconductor device includes a board, a semiconductor element mounted on one of main surfaces of the board, a plurality of passive elements provided in the vicinity of the semiconductor element, and a heat radiation plate mounted above the board and connected to a rear surface of the semiconductor element via a heat conductive material. A surface roughness of a surface of the heat radiation plate which surface comes in contact with the heat conductive material is non-uniform at a whole of the surface.

Abstract: A semiconductor module has a housing, including a power semiconductor, a cooler bearing against the latter and serving for dissipating heat loss. In at least one embodiment, a spring element, which is supported between housing and cooler, is arranged on the side of the cooler remote from the power semiconductor and prestresses the cooler against the power semiconductor.

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

Abstract: A heat sink includes two heat spreaders spaced from each other and a plurality of heat dissipation fins disposed between the heat spreaders. The heat dissipation fin is curved from one of the heat spreaders to the other one of the heat spreaders. A curved air passage is formed between every two adjacent heat dissipation fins. The heat dissipation fin can resiliently deform to change a distance between the heat spreaders. The present disclosure also discloses an electronic device incorporating such a heat sink. The electronic device comprises a shell and an electronic component mounted in the shell. One of the heat spreaders is attached to the electronic component and the other one is attached to the shell.

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

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

Abstract: A heat dissipation device includes a heat sink in which a plurality of mounting holes are defined, and a plurality of fasteners. Each of the fasteners includes a shaft with one end thereof received in a corresponding mounting hole, a sleeve enclosing the shaft and received in the mounting hole, and a fixture engaging the shaft and pressing the heat sink and a bottom end of the sleeve. The sleeve is filled between the end of the shaft and an inner face of the heat sink defining the mounting hole to perform an engagement of the shaft in the mounting hole of the heat sink, thereby fastening the fasteners to the heat sink. The shaft has a screw extending out of the mounting hole for mounting the heat sink on a printed circuit board.

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

Abstract: An arrangement between a power semiconductor module and a printed circuit board is disclosed, A printed circuit board includes strip conductors, and a power semiconductor module includes a module housing and power terminals. The power terminals extend to the exterior of the module housing and into contact with the strip conductors. A heat sink is disposed on a side of the power semiconductor module opposite the circuit board. A deformable means is disposed between the module housing and the circuit board and is configured to relieve a contact pressure load on the power terminals. A contact-pressure element is disposed on a side of the circuit board opposite the power semiconductor module. The contact-pressure element is integral with a first housing part of an arrangement housing, and the heat sink is integral with a second housing part of the arrangement housing. The two housing parts enclose the circuit board.

Abstract: A heat dissipation device assembly includes a heat dissipation device for dissipating heat from an electronic element and a protective device assembly. The heat dissipation device includes a base with fasteners extending therethrough, a plurality of fins arranged on a top of the base, and a heat conducting plate attached on a bottom of the base. A thermal interface material is spread on a bottom surface of the heat conducting plate. The protective device assembly includes a first cover attached to a bottom of the heat conducting plate and a second cover separated from the first cover and attached to a lateral side of the base. The first cover protects the thermal interface material from being contaminated and the second cover protects the fasteners from dropping from the base, when the heat dissipation device is transported.

Abstract: A heat sink protective cover includes a main body, on which at least one receiving space is defined for receiving a heat sink therein. The receiving space includes at least one positioning section and a dust-proof section. The positioning section is located at two opposite inner wall surfaces of the receiving space. The dust-proof section includes a raised portion and a recess portion, the raised portion is extended along a periphery of the dust-proof section to limit the recess portion on four sides thereof, and the dust-proof section is located on a bottom of the receiving space. The heat sink is stably hold in place in the receiving space by the positioning section and isolated from dust by the dust-proof section, and can therefore be effectively protected against collision, damage, and contamination while being transported.

Abstract: A heatsink assembly includes a heatsink having a base board which includes fins extending from a top thereof and a recessed area defined in an underside thereof. The recessed area of the heatsink is adapted for engagement with a chip set. A positioning device includes a rectangular frame that is mounted to the heatsink and includes two side plates extending downward from two opposite sides thereof. Each side plate has a hook extending from an inside thereof so as to hook the chip set. Two flexible rods extend from the two opposite sides of the rectangular frame and each flexible rod has a pressing portion which presses on the top of the base board of the heatsink.

Abstract: A heat dissipation assembly includes a heat sink, a retention module surrounding the heat sink, and a pair of wire clips pivotably attached to the retention module to press the heat sink against an electronic component on a printed circuit board. The retention module includes three walls surrounding a rectangular opening through which the heat sink contacts with the electronic component. Two barbs and two supporting members are formed on the three walls. Each clip includes a pivoting section retained in one supporting member, an abutting section pressing the heat sink toward the electronic component, and a locking section locked with one barb, a connecting section connecting the abutting section with the pivoting section, and a handle formed from the locking section. Each clip is entirely located at a corresponding side of the heat sink.

Abstract: A heatsink assembly includes a heatsink which has a base board and fins extending from a top thereof. The heatsink is directly put on the chip set. A positioning device includes a rectangular frame which is mounted to the heatsink and includes two first extensions and two second extensions extending from two pairs of opposite sides thereof. Each first extension has a hook extending from an inside thereof so as to hook the circuit board and the second extensions each have a first inclined surface engaged with the inclined surface defined in a periphery of the chip. Two flexible rods extend from the two opposite sides of the rectangular frame and each flexible rod has a pressing portion which presses on the top of the base board of the heatsink.

Abstract: A memory module assembly includes a heat-sink plate attached to one or more of the integrated circuits (e.g., memory devices) of a memory module PCBA by adhesive. The heat-sink plate includes an elongated base structure, a first contact plate extending away from the base structure such that a step-like positioning surface is defined therebetween, and heat-exchange fins extending from the opposite side of the base structure. An optional upper heat-sink plate is secured to a second side of the PCBA by a second adhesive layer, and contacts the lower heat-sink plate to facilitate heat transfer to the heat-exchange fins. The adhesive is either heat-activated or heat-cured. The adhesive is applied to either the memory devices or the heat-sink plates, and then compressed between the heat-sink plates and memory module using a fixture. The fixture is then passed through an oven to activate/cure the adhesive.

Abstract: A securing device includes a securing member defining a securing hole, and a fastener. The fastener includes a spring, and a bolt having a main portion, a bottom fixing portion, and a top head portion. The securing hole includes an inner portion and an outer portion extending horizontally from the inner portion to an outside. A width of the outer portion is smaller than the fixing portion and larger than the main portion. The main portion enters into the inner portion through the outer portion. The fixing portion abuts against a bottom of the securing member. The spring is compressed between a top of the securing member and the head portion. A concave is depressed from the securing member and surrounds the inner portion. A lower portion of the spring is fittingly received in the concave.

Abstract: A thermal management device for a circuit substrate having at least a first heat generating component and at least a second heat generating component, the thermal management device includes a first thermal spreader and a second thermal spreader. The second thermal spreader is mountable to the circuit substrate to thermally couple with the second heat generating component. Additionally, the second thermal spreader is adapted to couple to the first thermal spreader to thermally couple the first thermal spreader to the first heat generating component when the second thermal spreader is mounted to the circuit substrate. The thermal management device also includes a bias device that is coupled to the first thermal spreader and the second thermal spreader and is adapted to maintain the thermal coupling between the first thermal spreader and the first heat generating component when the second thermal spreader is mounted to the circuit substrate.

Abstract: A socket for mounting a network device is provided. The socket includes a top portion and a bottom portion. The top portion and bottom portion are sized to engage with a network communication device that may be inserted into an interior of the socket from a first side of an installation surface. The top portion and bottom portion may be operable to draw heat away from the network device and release the heat on a second side of the installation surface.

Abstract: A heat dissipating module including a first heat sink, a second heat sink, a connector, a pivot and a heat pipe is provided. The first heat sink is disposed on a circuit board and contacts a heat source. The second heat sink has a first pivotal hole and a limiting opening. The connector has a first connecting portion and a second connecting portion. The first connecting portion is fixedly connected to the first heat sink. The second connecting portion has a limiting protrusion and a second pivotal hole corresponding to the first pivotal hole. The pivot passes through the first pivotal hole and the second pivotal hole and is pivotally connected to the connector and the second heat sink. The limiting protrusion protrudes into the limiting opening to limit the rotation angle of the second heat sink relative to the connector.

Abstract: The present invention is a thermally controlled switch with high thermal or electrical conductivity. Microsystems Technology manufacturing methods are fundamental for the switch that comprises a sealed cavity formed within a stack of bonded wafers, wherein the upper wafer comprises a membrane assembly adapted to be arranged with a gap to a receiving structure. A thermal actuator material, which preferably is a phase change material, e.g. paraffin, adapted to change volume with temperature, fills a portion of the cavity. A conductor material, providing a high conductivity transfer structure between the lower wafer and the rigid part of the membrane assembly, fills another portion of the cavity. Upon a temperature change, the membrane assembly is displaced and bridges the gap, providing a high conductivity contact from the lower wafer to the receiving structure.

Abstract: A semiconductor module includes a base plate; a plurality of substrates placed on one surface of the base plate, with each substrate of the plurality of substrates including a switching element, a diode element, and a connection terminal area; and a parallel flow forming device that forms parallel coolant flow paths that are provided so as to be in contact with the other.

Abstract: A heat dissipation device includes a base, a connecting member and a wire-shaped clip. The base thermally contacts with an electronic component mounted on a printed circuit board. The connecting member encloses the base therein and is secured to a periphery of the base. A plurality of clasps extends upwardly from the connecting member. The clip is clasped by the clasps of the connecting member to be attached thereto. The clip is pressed downwardly to engage with a plurality of hooks of a bracket around the electronic component of the printed circuit board to make the base intimately contact with the electronic component.

Abstract: A heatsink having tapered geometry that improves passive cooling efficiency is discussed. A tapered geometry between heatsink heat dissipation elements, as a function of distance along a z-axis opposing gravity, decreases resistance to rarification of passively flowing cooling gas upon heating. Thus, the tapered heatsink elements result in higher velocity of gas flow and increased cooling efficiency of the heatsink. Optionally, the heatsink is made from a thermally conductive polymer allowing the heatsink to be created in complex shapes using injection molding.

Abstract: A heat sink used in an interface card includes a supporting base, a first heat-dissipating body and a second heat-dissipating body. The supporting base has a side. The first heat-dissipating body is mounted on the supporting base. The first heat-dissipating body is constituted of a plurality of overlapping heat-dissipating pieces. The heat-dissipating pieces are arranged obliquely with respect to the side. The second heat-dissipating body overlaps on the first heat-dissipating body. The second heat-dissipating body comprises a plurality of heat-dissipating pieces. Via the above arrangement, the heat-dissipating efficiency of the interface card can be increased and the lifetime thereof can be extended.

Abstract: A computer adapted for force-air cooling of a processor. The computer includes a board supporting the processor and a heat sink mounted such with its base plate contacting the processor. A primary mount supports the heat sink near the processor, and a portion of the heat sink base plate extends outward a distance or overhang length from the primary mount to an edge. The apparatus includes a secondary heat sink mounting assembly supported upon the processor board that includes a damping element with an resilient body positioned proximate to the edge of the base plate, whereby the body abuts the base plate during movement of the base plate toward the board, e.g., upon application of a dynamic or shock load that causes the overhanging portions of the base plate of the heat sink to vibrate or oscillate about the support locations of the primary mount.

Abstract: A heat sink assembly includes a heat sink and a clip for mounting the heat sink to an electronic component of a printed circuit board. The heat sink includes a base and a plurality of fins extending from the base. The clip includes a pressing member and a pair of elongated arms formed on opposite ends of the pressing member. The pressing member has a lower portion protruding toward the base of the heat sink. A middle one of the fins extends upwardly through the pressing member in a manner such that the lower portion of the pressing member resiliently abuts against the heat sink. The two arms are located on opposite lateral sides of the heat sink and bent downwardly to engage with the printed circuit board so that the pressing member exerts a force on the heat sink toward the electronic component.

Abstract: A securing device (30) is used for securing a heat sink (10) to a printed circuit board (40) with a heat-generating electronic component (41) mounted thereon. The securing device includes a V-shaped elongated main body (31), a first locking leg (34), a second locking leg (332) and a resilient member (32). The first locking leg and second locking leg are connected to two opposite ends of the main body respectively for engaging with a retention frame (20) on the printed circuit board. The resilient member includes a planar-shaped supporting plate (321) engaging with a bottom portion of the main body and at least one resilient foot (322) extending downwardly from the supporting plate. The resilient foot deforms to exert a resilient force on the heat sink when the heat sink is assembled to the electronic component by the securing device.

Abstract: A clip (50) for securing a heat dissipating device to a heat source comprises a spring arm (510) and an ear (530). The spring arm comprises two wires (512) substantially parallel to each other, a hook (514) formed at one end of the spring arm to connect ends of the wires and two barbs (516) each formed at another end of each of the wires. A central portion of each of the wires projects downwardly. The ear comprises a main body (530a), two notches (532) in an upside of the main body and a clamping unit (537) at a downside of the main body. Each of the notches comprises from above to below an insertion slot (5321), an elongated sliding slot (5323) and a retaining slot (5325). The spring arm engages with the ear with the barbs extending into the insertion slots, and the wires are slideable downwardly along the sliding slots to be fixed in the retaining slots.

Abstract: A heat sink includes two heat spreaders spaced from each other and a plurality of heat dissipation fins connected between the two heat spreaders. The heat dissipation fin is wave-shaped from one of the heat spreaders to the other one of the heat spreaders. The heat dissipation fins are spaced from each other. When a force is applied to two heat spreaders of the heat sink, the heat dissipation fin is resiliently deformed to change a distance between the two heat spreaders. The present disclosure also discloses an electronic device incorporating the heat sink and the heat dissipation fin.

Abstract: An electronic device includes a shell, an electronic component received in the shell, and a heat sink arranged between the electronic component and the shell. The heat sink includes a first heat spreader attaching to the electronic component, a second heat spreader spaced from the first heat spreader, and a plurality of fins between the first and second heat spreaders. Each fin includes a pair of contacting portions, a pair of bending portions and a connecting portion each of which being flat. The contacting portions are respectively connected to the two heat spreaders. The bending portions respectively extend from the contacting portions towards each other. Each bending portion forms a rear end adjacent to the other bending portion. The connecting portion interconnects the rear ends of the bending portions at opposite ends thereof.

Abstract: An LED lamp includes a first heat sink, a pair of second heat sinks arranged at two opposite sides of the first heat sink, a plurality of heat pipes connecting the first heat sink to the pair of second heat sinks, and an LED module mounted on the first heat sink. With the help of good heat conducting capability of the heat pipes, heat generated by LEDs of the LED module can be conducted to the first heat sink and the pair of second heat sinks rapidly, which then dissipate the heat to the ambient air. Each second heat sink consists of a plurality of sheets defining a plurality of gaps therebetween; the gaps extend through top and bottom of each second heat sink. Each second heat sink has a lower portion below a bottom surface of the first heat sink.

Abstract: A water-cooling radiator for a computer chip is provided to lower the temperature of the computer chip. The radiator includes a body on which other elements can be fixed and providing an interface for heat exchange, an internal circulation flow path built inside the body to provide a passage required for the coolant to flow through, and a pump fixed to the side of the body near the computer chip to provide power required for the coolant circulation.