Abstract: An electronic module and chassis/module installation are disclosed. The installation comprises a chassis including a metallic heat input region. An electronic module including an electronic component is adapted to be connected to the chassis. An uninterrupted thermal pathway thermally connects the electronic component of the module to the heat input region of the chassis. The thermal pathway comprises a chimney, a heat channel thermally connected to the chimney, and a heat output block thermally connected to the heat channel. A first electrically insulative non-metallic layer thermally couples the chimney to the electronic component. A second electrically insulative non-metallic layer thermally couples the heat output block to the chassis heat input region.

Abstract: A series-connected heat dissipater coupled by heat-pipe used for the interface cards of a computer system. Wherein, a plurality of additional auxiliary dissipaters are provided onto the insertion slots adjacent to the interface cards, and are connected to the main dissipater through heat pipe, hereby effectively solving the heat dissipation problem of the interface cards, so that the main-machine-board will not be bent and deformed due to the overweight caused by the interface cards.

Abstract: This invention is a support carrier for attaching a smaller format disk drive into a chassis bay sized for receiving a larger disk drive, the support carrier includes a heat-sink surface with pin fins for conducting and removing heat from the smaller disk drive.

Abstract: A method and apparatus for providing thermal dissipation from a PC card is disclosed. For one embodiment of the invention, an extension portion, having a heat sink implemented thereon, is provided for a PC card. The extension portion extends beyond the PC card slot allowing thermal dissipation from the card due to air flow over the heat sink. For one embodiment of the invention, heat producing components of the PC card are identified and a thermally conductive path is provided from the components to the extension portion of the PC card.

Abstract: A method and apparatus for a thermally conductive packaging technique for cooling electronic systems. A heat source is partially surrounded by a set of thermal transfer media. A set of thermal transfer shells partially surround the set of thermal transfer media. The heat source connection means are left exposed and utilized for connection to the electronic system. The heat source, the set of thermal transfer media configured to partially surround the heat source, and the thermal transfer shell partially surrounding the set of thermal transfer media form a thermal transfer module. Thermal transfer modules may be placed in thermally conductive cells. A set of thermal transfer sheets are placed in contact with both or either of the thermal transfer module and the thermally conductive cell, facilitating a heat exchange with an environment external to the thermal transfer module.

Abstract: The present invention is a cooling device for removing heat from an integrated circuit. In one embodiment, the cooling device includes a conduit and a flexible channel having a first open end and a second closed end. The flexible channel's first open end has an internal width and is coupled with the conduit. The flexible channel is comprised of a resilient material having spring-like characteristics. In one embodiment, this material provides a spring-like restoring force when compressed. The cooling device also includes an interconnect mechanism between the conduit and the flexible channel to allow a gas or a fluid introduced within the conduit to move between the conduit and the flexible channel.

Abstract: A mobile terminal device comprises a first case including display unit, and a second case arranged so as to slide with respect to the first case and including input unit. The mobile terminal device further comprises a heat radiation member for radiating heat generated in the first case or in the second case. The heat radiation member has a surface area exposed outside which is changed in connection to the slide operation of the first and the second case.

Abstract: A power supply having an extendable power input port connecting to a connection line to be installed on a side wall of a computer host. The side wall and the power supply form a heat dissipation passage therebetween to improve heated airflow in the computer host and increase heat dissipation effect without affecting electric plugging of the power supply.

Abstract: A heat dissipating apparatus for dissipating heat generated by a VGA card includes a heat sink and a retention assembly. The heat sink includes a base located on the add-on card, a plurality of fins, a fan for blowing air toward the fins and a cover for covering the fins and the fan. The retention assembly includes four pegs each having a first end locked in the base of the heat sink and a second end, a back plate secured beneath the add-on card and two wire clips. The second ends of the pegs extend through the base, the add-on card and the back plate in turn and are held in position by the wire clips beneath the back plate, whereby the heat sink and the back plate are secured to opposite sides of the add-on card.

Abstract: A computing device module for receipt within a computing device chassis includes an enclosure and a handle movably coupled to the enclosure. The handle moves between an extended position and a retracted position. The handle includes at least one opening configured to permit at least one hand digit to extend through the at least one opening when the handle is in the retracted position.

Abstract: A power inverter is provided. The power inverter includes a housing having first and second openings therein and at least partially defining a cavity and a fluid passageway on first and second sides of the cavity. First and second power modules are connected to the housing on the respective first and second sides of the cavity. A capacitor assembly is within the cavity such that when heat is generated by the first and second power modules and the capacitor assembly and a fluid flows into the first opening, through the fluid passageway, and out of the second opening, at least some of the heat is transferred from the first and second power modules and the capacitor assembly to the fluid and is removed through the second opening.

Abstract: A memory module assembly includes a pair of heat-dissipation plates (10), a printed circuit board (20) sandwiched between the heat-dissipation plates (10), and four clamps (30) for securing the heat-dissipation plates (10) onto opposite sides of the printed circuit board (20). Each clamp includes a connecting portion (32) and a pair of elastic pressing portions (34) extending from opposite free ends of the connecting portion. Each pressing portion has a pair of hooks (342) extending from opposite lateral sides thereof and an engaging portion extending (344) from a free end thereof and clamping on an end of the heat-dissipation plate. The hooks are inserted into openings (18) defined in the heat-dissipation plates and engage with inner surfaces of the heat-dissipation plates.

Abstract: A module is electrically connectable to a computer system. The module includes at least one multilayer structure having a plurality of electrical contacts which are electrically connectable to the computer system. The module further includes a first printed circuit board coupled to the at least one multilayer structure. The first printed circuit board has a first surface and a first plurality of components mounted on the first surface. The first plurality of components is in electrical communication with the electrical contacts. The module further includes a second printed circuit board coupled to the at least one multilayer structure. The second printed circuit board has a second surface and a second plurality of components mounted on the second surface. The second plurality of components is in electrical communication with the electrical contacts. The second surface of the second printed circuit board faces the first surface of the first printed circuit board.

Abstract: A plasma display apparatus includes a Plasma Display Panel (PDP). A thermal conductive sheet is attached to one side of the PDP, and a chassis base is connected to the side of the PDP on which the thermal conductive sheet has been attached. The chassis base can be a planar plate having edge portions. At least one reinforcing unit is extends along and is attached to at least one of the edge portions of the chassis base.

Abstract: A work machine includes a bulkhead separating an operator cab from an engine compartment. An electronic module includes a cantilever arranged mounting flange mounted to the bulkhead. The electronic module includes a rigid and thermally conductive frame. An electronics board is mounted to one side of the frame, and a power board is mounted to an opposite side of the frame. The electronics board carries a plurality of electronic components, and the power board carries a plurality of replaceable power elements. Each power element is a fuse, relay and/or circuit breaker. A housing encloses the electronics board and the power board. The housing includes an access cover to the power board.

Abstract: A heat dissipation device used for dissipating heat from heat generating electronic components mounted on an interface card, which has a mounting bracket for being mounted to a computer case, includes a heat-absorbing member, a pair of heat pipes and a pair of heat-dissipating members. The heat-absorbing member is bound to the heat generating electronic components for absorbing heat generated by the electronic components. The heat-dissipating members are disposed within the computer case and located at one peripheral side edge of the graphics card. The heat-absorbing member and the heat-dissipating members are connected by the heat pipes so as to transfer the heat received by the heat-absorbing member to the heat-dissipating members for further dissipating.

Abstract: A memory module assembly includes two-plate heat sink attached to one or more of the integrated circuits (e.g., memory devices) of a memory module PCBA by adhesive. 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. The two heat sink plates are connected together to form a rigid frame.

Abstract: A memory card including a module comprising at least a printed circuit board having an electronic circuit device mounted thereto and at least one I/O pad and at least one test pad disposed thereon. The module is inserted into a complementary cavity formed within a case of the memory card, such case generally defining the outer appearance of the memory card. The module is secured within the cavity of the case through the use of an adhesive. In each embodiment of the present invention, first and second covers are movably attached to a case for selectively covering or exposing the I/O pads and the test features/pads of the module of the memory card.

Abstract: In a portable electronic device having two circuit boards having a heat generating electronic device, a frame arranged at a position pinched between the circuit boards, a first heat radiating plate brought into contact with the frame and having a higher thermal conductivity than the frame, and a second heat radiating member transferring a heat between the first heat radiating member and two circuit boards, each of two circuit boards is fixed to the frame and two circuit boards are directly connected by a connector. Accordingly, it is possible to provide the portable electronic device which can improve a heat radiating efficiency and achieve a further thin structure.

Abstract: A receptacle assembly is provided having a gasket interposed between a heat sink and the receptacle, in order to provide EMI shielding and limit leakage from an opening in the receptacle that allows the heat sink to engage an electronic module inserted in the receptacle cavity. The heat sink may have a groove in which the gasket is mounted and upon mounting the heat sink to the receptacle, the gasket surrounds the opening in the receptacle and provides a resilient shield to maintain a seal during movement of the heat sink due to insertion of the electronic module within the receptacle.

Abstract: A module is provided that has high reliability in the junction between a ceramic circuit board and a heat sink, undergoes small changes in shape and warp of a module structure comprising a ceramic circuit board and a metal heat sink event under a temperature history during power module assembly and power module actual use, eliminates an unfavorableness during power module assembly, and maintains high reliability over a long period of time. A module structure characterized in that in a module member formed by bonding the ceramic circuit board to the metal heat sink via a metal plate (A) the main component of which is aluminum, the metal plate (A) has a thickness of 400 ?m or more and 1,200 ?m or less.

Abstract: A heat sink for surface-mounted semiconductor devices is provided on a superordinate circuit board of an electronic module. The heat sink includes a three-dimensionally structured thermally conductive plate with a press-on region and snap-action hooks. The snap-action hooks are arranged approximately at right angles with respect to the press-on region and are spring-elastically connected to the press-on region of the heat sink via a spring-elastic connecting region of the heat sink. The snap-action hooks engage with edge regions of a thermally conductive coupling plate with the press-on region generating pressure. The coupling plate is fixed to a rear side of a semiconductor chip of the surface-mounted semiconductor device.

Abstract: A system and method removes heat from an enclosure or housing of a subscriber optical interface. When a subscriber optical interface housing is attached to a structure such that a partially enclosed volume of space remains between the structure and the subscriber optical interface housing, this partially enclosed volume of space can produce a chimney effect when heat from the subscriber optical interface housing is intended to flow from fins towards the structure. This chimney effect can refer to a fluid such as air within the partially enclosed space that is heated by the fins and that rises upward when the ambient or surrounding fluid is cooler relative to the heated fluid. According to another exemplary embodiment, the subscriber optical interface can be shaped to form an internal chimney structure that is entirely surrounded by a housing of the subscriber optical interface.

Abstract: A multi-processor system has a tubelike computer module including plural mother boards configured onto plural side walls of a rack body to form a unitary, continuous and non-segment airflow channel. The airflow channel of the tubelike computer module has larger space and fewer barriers to allow the airflow passing through smoothly, and to reduce wind noises or turbulences. Therefore, the system achieves optimum heat-dissipation efficiency and noise reduction by means of specific space arrangement and less cooling system requirement.

Abstract: A heat dissipation device cooling a power adapter (50) includes first and second heat dissipation units (10), (20), at least one heat pipe (30) connecting the first and second heat dissipation units and a plurality of positioning elements (60) securing the first and second heat dissipation units on the power adapter. The positioning elements extend through the first heat dissipation unit and bottom ends of the positioning elements are screwed into the second heat dissipation unit. Top ends of the positioning elements are secured to the first heat dissipation unit. Therefore, the power adapter is tightly sandwiched between the first heat dissipation unit and the second heat dissipation unit by the positioning elements. Spring forces are exerted by the positioning elements on the first heat dissipation unit toward the second heat dissipation unit.

Abstract: An audio system includes a housing which has at least one port, at least one speaker driver with a diaphragm located in the housing, a tube made of one or more thermally conductive materials and having at least two openings, and at least one electronic component which is thermally coupled to the tube. The tube is at least partially located in the housing with one of the openings of the tube at least adjacent to the port of the housing. Movement of the diaphragm helps move air into and out of the tube to dissipate heat.

Abstract: A floating guide device provides increased thermal conductivity between a printed wiring assembly and a heat sink chassis. The guide device includes an elongated thermally conductive rod and a wedgelock used in conjunction with the rod that can be attached to the rod. The guide device can be used in an electronic assembly comprising a chassis having at least one slot, and at least one printed wiring assembly with a printed wiring board disposed in the slot. At least one integrated circuit package is electrically attached to the printed wiring board. The printed wiring board provides a thermal path to the chassis. The guide device provides one or more additional thermal paths between the printed wiring board and the chassis.

Abstract: A memory module assembly includes a printed circuit board (10) having a heat-generating electronic component (50) thereon, a pair of heat-dissipating plates (20) attached on the printed circuit board, and a pair of clamps (30) clamping the heat-dissipating plates and the printed circuit board therebetween. Each heat-dissipating plate includes a pair of supporters (28) and a handle (24) rotatably engaging with the supporters. The heat-dissipating plates are installed on the opposite sides of the printed circuit board by exerting a force to the handles to make them move toward each other wherein the force overcomes the spring force of the clamps.

Abstract: A modular electronic device is provided in a tubular form having a male bayonet connector at one end and a female bayonet connector at the other. A power and communications bus interconnects the connectors. An electronic circuit is located within the device in communication with the bus. Modular devices including an electronic timer, a printer module and a digital camera are provided. A number of the devices can be connected end-to-end to share different functionalities by means of the bus.

Abstract: An electronic control device includes a circuit substrate consisting of four rigid portions and intervening flexible portions which are serially connected to each other. This circuit substrate is accommodated in a casing in such a manner that respective flexible portions are folded by 180° to dispose respective rigid portions to be parallel to each other. The rigid portions, positioned at both ends of the circuit substrate, mount connectors so as to face to mutually opposed directions. Other rigid portions mount electronic components and heater components. The outermost connectors are connected to different connection objects. The casing is made of a metal material so that heat generating from the heater components can be transmitted via heat dissipation gel to the casing and efficiently released to the outside.

Abstract: A memory module assembly includes a printed circuit board (30) having a heat-generating electronic component (32) thereon, a heat sink (10) and a clip (20) for securing the heat sink onto the heat-generating electronic component. The heat sink includes a base (12) and a plurality of fins (14) arranged on the base. A plurality of recesses is defined in the heat sink. The clip includes a body (22) resting against a face of the printed circuit board and elastic hooks (24) extending from the body. The hooks are received in the recesses and resiliently press the base of the heat sink toward the heat-generating electronic component, whereby the clip clamps the heat sink and the printed circuit board together.

Abstract: A semiconductor module, including a semiconductor device mounted on a printed circuit board (PCB), the PCB having an electrical connection to the semiconductor module, and a heat sink in direct contact with the semiconductor device, the heat sink being formed with a first end and a second end, the first end and the second end being formed with different heights, wherein the semiconductor module allows air flow to pass through the semiconductor module, radiating heat away from the heat sink. Another semiconductor module, including a semiconductor device mounted on a PCB, a heat sink in direct contact with the semiconductor device, the heat sink having a first portion and a second portion, wherein the first portion has a flat shape and is in direct contact with the semiconductor device and the second portion has a corrugated shape and is not in contact with the semiconductor device, wherein the semiconductor module allows air flow to pass through the semiconductor module, radiating heat away from the heat sink.

Abstract: The present invention discloses a compact converter including a compact casing having an air inlet defined thereon, a printed circuit board supported within the compact casing at a position between a top and a bottom wall of the compact casing to form an upper air channel between the printed circuit board and the top wall of the compact casing and a lower air channel between the printed circuit board and the bottom wall of the compact casing, wherein the lower air channel is communicating with the upper channel; a cooling fan is electrically mounted on the printed circuit board at a position aligning with the air inlet for drawing exterior air through the air inlet to the lower air channel to create an air circulation between the lower air channel and the upper air channel, so as to cool down the printed circuit board.

Abstract: A heat spreader with multiple stacked printed circuit boards (PCBS) includes top and side sections within which a first PCB is contained and bottom edges that extend to a second PCB. The heat spreader and second PCB substantially enclose the first PCB therein.

Abstract: A cooling apparatus, system, and method are provided. The cooling apparatus includes at least one printed circuit board having opposed major surfaces, and at least one electrical component or other heat source positioned on one major surface of the printed circuit board. The cooling apparatus also includes a pulsating heat pipe having at least a portion that is positioned to either extend along and proximate to one of the major surfaces or be embedded within the printed circuit board. As such, the pulsating heat pipe is capable of transferring heat from the printed circuit board.

Abstract: A circuit module is provided that includes a system for reducing thermal variation and cooling the circuit module. The module includes a thermally-conductive rigid substrate having first and second lateral sides and an edge. Flex circuitry populated with a plurality of ICs and exhibiting a connective facility that comprises plural contacts for use with an edge connector is wrapped about the edge of the thermally-conductive substrate. Heat from the plurality of ICs is thermally-conducted by the thermally-conductive substrate. The module also includes one or more heat pipes. Each heat pipe is sealed water-tight and includes a wick and a vaporizable fluid.

Abstract: In various embodiments, heat from a computer component may be absorbed into a medium, moved to a remote heat dispersal unit and dissipated into the surrounding air. In some embodiments, the heat dispersal unit may include a heat sink. In some embodiments, the medium may include a liquid metal. In various embodiments, a vapor compression system may include an evaporator, a compressor, a condenser, and an expansion valve. In some embodiments a separate heat pipe may be placed between the computer component and the evaporator. In various embodiments, a thermo conductive plate may be used to thermally couple the heat pipe to various components including the computer component, evaporator, condenser, and/or heat sink. In some embodiments, a thermo electric module (TEM) may be coupled to various parts of the system.

Abstract: A heat sink device for conventional memory modules, such as DIMMs, that is configured to be positioned between adjacent memory modules mounted in substantially parallel connectors on a printed circuit board. Each heat sink device includes thermally conductive first and second members configured to thermally couple with electronic components of a conventional memory module. The first and second members may be resiliently biased away from one another so that the resilient bias causes the members to abut respective electronic components when placed between adjacent memory modules. A separate wedge, or a lever-mounted wedge, may be provided for insertion between the members to urge them away from one another and into abutting relationship with electronic components on facing surfaces of the adjacent memory modules. When abutting opposing electronic components, a single heat sink device facilitates heat dissipation from both of the adjacent memory modules.

Abstract: An RF amplifier assembly employing a finned heat sink and a heat pipe enhanced aluminum pallet is disclosed. The hybrid heat pipe enhanced aluminum pallet reduces the spreading thermal conduction resistance associated with the conduction of localized energy from RF amplifier devices when compared to a copper pallet. The localized energy concentration of RF amplifier devices is spread along the length of the heat pipe increasing the overall efficiency of the heat sink coupled to the pallet and accommodating non-uniform heat loading. This reduces the junction temperature of the devices, which leads to higher mean time before failure and higher output levels. The pipes are formed and embedded into the pallet so as to pass under different areas of interest and extend to the under-utilized regions.

Abstract: There is described a module for an automation device with a plurality of adjacent modules, having a housing capsule that has at least one rear wall and two side walls and which is provided for housing electric components. There is also described an automation device having modules of said type. It is proposed that one of the side walls of the modules be embodied as being thermally conductive and that the other side wall be embodied as being thermally insulated. That will on the one hand result in improved heat dissipation for the modules and, on the other, will prevent the thermal coupling of adjacent modules of the automation device.

Abstract: A heat sink device for conventional memory modules, such as DIMMs, that is configured to be positioned between adjacent memory modules mounted in substantially parallel connectors on a printed circuit board. Each heat sink device includes thermally conductive first and second members configured to thermally couple with electronic components of a conventional memory module. The first and second members may be resiliently biased away from one another so that the resilient bias causes the members to abut respective electronic components when placed between adjacent memory modules. A separate wedge, or a lever-mounted wedge, may be provided for insertion between the members to urge them away from one another and into abutting relationship with electronic components on facing surfaces of the adjacent memory modules. When abutting opposing electronic components, a single heat sink device facilitates heat dissipation from both of the adjacent memory modules.

Abstract: The present invention provides a highly reliable electric power converter reduced in parasitic inductance.

Abstract: A heat dissipation device for electrical components includes an outer surface and an inner surface. The outer surface is configured for mounting the electrical components thereon, wherein the components are mounted to the outer surface to allow the transfer of heat from the electrical components to the heat dissipation device and ambient air. The inner surface defines a cavity within the heat dissipation device that also enables housing of the electrical components.

Abstract: A heat dissipation system for a miniaturized form factor card allows a communications system for mobile information devices contained in the card to operate with high heat loads by employing a high conductivity pad on the printed circuit board of the mobile information device which contacts the case of the miniaturized form factor card. Additionally, heat dissipation plugs are integrated into the edge of the PCB with emitting surfaces adjacent radiation holes in the case of the mobile information device adjacent the PCB. Heat convection channels through layers of the PCB allow transfer of heat from the pad to other conductive layers in the PCB. High thermal conductivity packing in the miniaturized form factor card conducts heat from the internal components to the case of the card in contact with the high conductivity. Placement of high heat generation components within the card case adjacent the contact interface with the high conductivity pad is also employed for maximum heat dissipation.

Abstract: A memory module assembly (1) includes a printed circuit board (10) having an electronic heat-generating electronic component (40) thereon, a heat sink (20) and a clip (30) for securing the heat sink onto the heat-generating electronic component. The clip includes a pressing portion (32) and a pair of latching portions (33) respectively extending from two ends of the pressing portion. Each latching portion includes a latching leg (332) and a retaining hook section (334) formed at a bottom end of the latching leg. The retaining hook sections tightly engage a bottom face of the printed circuit board and the pressing portion presses the base toward the heat-generating electronic component. The latching legs extend through an opening and a through hole in the printed circuit board. The through hole has a L-shaped configuration and does not communicate with a periphery side of the printed circuit board.

Abstract: A cooling assembly is located in a chassis with a conduction-cooled circuit module and permits the conduction-cooled circuit module to be utilized in an air-flow-through or liquid-flow-through circuit module chassis assembly. The cooling assembly may be a removable cooling adapter or may be integral with the chassis. The cooling assembly includes a housing having a first end and a second end and defining one or more fluid passages. The housing further includes a thermal contact surface to contact the conduction-cooled circuit module. The cooling assembly may be configured for air-flow-through or liquid-flow-through cooling of the conduction-cooled circuit module.

Abstract: A plug-in module adds functionality to a portable electronic device. The module includes a housing that is accepted by a housing port of the portable electronic device. The module includes at least one latch to secure the module to the electronic device. Each latch includes a first member, a second member, and a third member. The housing includes at least one receptacle corresponding to each latch. The receptacles are sized and positioned to accept a member of the latch and direct the latch to a groove located on the portable electronic device. Optionally, the latch includes a slip-resistant surface sized to accept a human finger or thumb. The module also preferably includes a hardware interface connector sized and positioned within the housing to engage a 120-pin hardware interface port on the portable electronic device when the module housing is positioned on the housing port of the portable electronic device.

Abstract: A memory device cooling apparatus includes a first heat sink operable to engage a first chip that is located on a memory device and that is operable to operate at a first temperature. A second heat sink is included that is separate from the first heat sink and is operable to engage a second chip that is located on a memory device and that is operable to operate at a second temperature, wherein the second temperature is different from the first temperature. A retaining feature is operable to couple the first heat sink and the second heat sink to a memory device. The memory device cooling apparatus may be coupled to a memory device having at least two different chips that operate at different temperatures to efficiently dissipate heat from the chips in order to cool the memory device.

Abstract: A mechanism is disclosed for cooling electronic components of a module housed in a chassis. The chassis may be, for example, a rack or other housing, which may contain many such modules. The system comprises an external cooling system, and an internal cooling system for cooling electronic components on the module. The internal cooling system may reside on the module. The internal cooling system can be removed from the chassis to enable servicing components on the module without disconnecting any lines carrying cooling fluid in either fluid cooling system.

Abstract: A module houses an optical transceiver device and provides a dedicated heat-transfer environment for the device. A fan draws in ambient air and blows it through a heat exchanger and out an exhaust. Heat transfer is by conduction from the device into the heat exchanger through an opening in an EMI shield of the device. In some embodiments the fan is a pluggable unit, allowing quick replacement if status LEDs indicate a fault.