Abstract: A structure to prevent propagation of a crack into the active region of a 3D integrated circuit, such as a crack initiated by a flaw at the periphery of a thinned substrate layer or a bonding layer, and methods of forming the same is disclosed.

Abstract: An electronic control unit is configured in such a way that the groove-shaped concave portion of the second case member includes a first concave portion, in which a groove width at a bottom surface side is narrow, and a second concave portion, in which a groove width at an aperture surface side is wide, and the first concave portion and the second concave portion are linked by an inclined step portion in such a way that a groove width at the step portion is increased in a direction from the bottom surface side to the aperture surface side, and moreover, a tip of the rail-shaped convex portion of the first case member is fitted into the first concave portion at the bottom surface side of the second case member.

Abstract: Power modules and power module arrays are disclosed. In one embodiment, a power module includes a module support, a high temperature module, and a module cap. The module support includes a frame member, a heat spreader, a first electrically conductive rail, and a second electrically conductive rail. The high temperature module includes a module substrate, a semiconductor device thermally and/or electrically coupled to a semiconductor surface of the module substrate, a first external connector, and a second external connector. The first and second electrically conductive rails are disposed within a through-hole of the first and second external connectors, respectively. The module cap includes a body portion, a plurality of posts, a first opening, and a second opening. The plurality of posts presses against at least the first external connector, the second external connector, and the module substrate such that the high temperature module is thermally coupled to the heat spreader.

Abstract: A differential carrier electronic package has a package housing that is made of upper and lower portions that are sealed together, where the upper portion has high thermal conductive properties and the lower portion has low thermal conductive properties. The upper and lower portions are in thermal contact with an environment that is external to a differential carrier housing. The lower portion extends through an opening in the differential housing, thereby further being in thermal contact with a fluid within the differential housing. The package housing further has an electronic circuit that is attached to and in thermal conduction with the upper portion, within the package housing. The lower portion may have a connector portion formed in it for electrically connecting between external electrical devices and sources, the electronic circuit, and control devices within the differential housing.

Abstract: Power supply and heat sink modules are suitable for use in sealed outdoor enclosures. Circuit elements in the power supply modules are connected to multiple heat sinks. The heat sinks are combined in heat sink modules. The heat sink modules provide high thermal conductivity while avoiding electromagnetic interference.

Abstract: A circuit breaker can minimize a change in a structure of a case when a material forming a stud is changed. A stud includes a base portion provided in the case and a protruding portion protruding from the case. A cross-sectional area of the protruding portion is more than that of the base portion; thereby a thermal conductivity of the protruding portion increases and the thermal conductivity from the protruding portion to an external conductor connected to the stud increases. In addition, since a surface area of the protruding portion increases, an amount of heat dissipated from the protruding portion increases. In the invention, since dimensions of the base portion inserted into a stud insertion hole of the case are not changed, it is not necessary to change the dimensions of the insertion hole of the case.

Abstract: A computer system includes a rack-mountable server unit with a closed server housing. The server housing has a channel with a recessed channel wall in conductive thermal communication with a processor or other heat-generating component. An elongate conduit is received into the channel of the server housing in conductive thermal communication with an external surface of the server housing. The server is cooled by conductive fluid flow through the conduit, with no appreciable airflow through the server housing. The system may be operated in an optional burst cooling mode, wherein a volume of cooling fluid is trapped in the conduit for a period of time before being quickly released.

Abstract: A heat dissipation apparatus for an electronic component installed in an enclosure of an electronic device includes a bracket and a heat sink. The bracket includes a supporting plate, an elastic positioning plate extending slantingly up from a side of the supporting plate away from the electronic component, and an installation plate extending from the positioning plate to be attached to the enclosure. The heat sink is fixed to the supporting plate to abut against the electronic component.

Abstract: Electronic assemblies and methods are described. One embodiment includes a circuit board and a socket coupled to the circuit board. The assembly also includes a package positioned in the socket, the package including a substrate, a die, and a heat spreader, the die positioned between the substrate and the heat spreader. The assembly also includes a load plate positioned on the heat spreader, the load plate covering a majority of the heat spreader, the load plate applying a force to the heat spreader that couples the package to the socket. Other embodiments are described and claimed.

Abstract: An enclosure that includes a box structure that includes a plurality of sides defining a sealed chamber for containing a heat producing component. At least one of the sides of the box structure includes a panel. The panel includes two outer sheets and an inner layer of material sandwiched between the two outer sheets. The two outer sheets and the inner layer of material collectively define a plurality of fluid flow channels extending from a first end of the two outer sheets to a second end of the two outer sheets. Heat generated by the heat producing component is transferred to at least one of the outer sheets which transfers the heat to fluid flowing through the fluid flow channels. The panel can be the main load bearing path of the box structure.

Abstract: A housing is described which is configured to dissipate heat from one or more heat sources within the housing and which comprises and inner layer and an outer layer. The outer layer comprises a material with a lower thermal conductivity than the inner layer. The outer layer is configured to have an overall thermal insulance of at least 2.5×10?3 Km2 W?1 at 20° C. A part of the inner layer and a part of the outer layer are spaced apart from each other and define a receptacle for wireless communication components. In another embodiment the housing comprises an air gap between the inner layer and the outer layer. The air gap and the outer layer together are configured to have an overall thermal insulance of at least 2.5×10?3 Km2 W?1 at 20° C.

Abstract: The present description relates to the field of microelectronic assemblies, wherein a heat dissipation device may be incorporated into the microelectronic assembly with a loading mechanism having at least one outrigger that is rotatable or pivotable between a first position and a second position to accommodate different heat dissipation device sizes or shapes.

Abstract: A self-circulating heat exchanger apparatus for dissipating heat from an electronic assembly. An enclosure defines a closed-loop circulation path for coolant. An electronic assembly capable of generating heat is installed into a vertical portion of the enclosure such that heat from the electronic assembly causes coolant in the vertical portion to rise, thereby inducing self-circulation of the coolant in the enclosure. The electronic assembly is coated with a combination of silicon nitride and PARYLENE® in order to protect electronic components from water based coolants such as a mixture of ethylene glycol and water.

Abstract: A control unit housing, especially for a transmission control module of a transmission of a motor vehicle. The control unit housing includes a first housing part and a second, cover-shaped housing part. A circuit carrier having at least one electronic component is accommodated in the first housing part. The first housing part is designed in the shape of a tub, whose floor is designed as a heat dissipation surface to an additional housing.

Abstract: A computer casing includes several electronic components, a first heat sink, a side plate, a second heat sink, a container, a pump, and a tube. The first heat sink is attached to an electronic component, and defines a channel including an inlet and an outlet. The side plate defines an opening. The second heat sink is fixed to the side plate and covers the opening. The second heat sink includes a first side facing the opening and an opposite side external to the side plate. The container is used to store coolant and is fixed to the first side of the second heat sink. A pump is connected to the container. The tube includes a first end connected to the pump and a second end connected to the inlet of the channel of the first heat sink, and stays in contact with the first side of the second heat sink.

Abstract: According to one embodiment, an electronic apparatus includes a heating component, a housing, and a heat diffusing member. The housing accommodates the heating component and includes a wall. The wall includes a first region configured to receive heat from the component and a second region configured to have a lower temperature than a temperature of the first region. The heat diffusing member is attached to an inner surface of the wall and extends from the first region to the second region.

Abstract: An ultrasound diagnostic apparatus includes an apparatus for heating a coupling medium, wherein the apparatus includes an external heat conductive unit, including a base for positioning a container storing the coupling medium, and an internal heat sink unit for absorbing heat from the heat generating unit of the ultrasound diagnostic apparatus. The external heat conductive unit and the internal heat sink unit are configured as separate assembly structures such that, in the state of assembly, the heat of the heat generating unit is transferred to the container through them.

Abstract: A flat display is disclosed, which includes a backlight module, a display panel, a flexible printed circuit board physically connected to the display panel, and a shielding double-sided tape for fastening the flexible printed circuit board on the backlight module. The shielding double-sided tape includes a frame shielding portion adhered to a front surface of the backlight module, and an extending portion extended from the frame shielding portion. A surface of at least one part of the extending portion is adhered to a back surface of the backlight module, and another surface of the least one part of the extending portion is adhered to the flexible printed circuit board.

Abstract: An automation device configured for an automation environment and for automating an industrial process includes a basic housing, a front hood, a primary heatsink for dissipating heat from a microprocessor, wherein the front hood is slottable onto the basic housing and assembles to form a closed housing which encloses the primary heatsink, the primary heatsink is rigidly connected to the basic housing on a bottom side of the basic housing via a locating bearing, the front hood includes a projecting retaining element on an inner side, a recess is arranged on a top side of the primary heatsink and into which the retaining element engages when the housing is closed, an elastic shaped element is arranged between the projecting retaining element and the recess, and the elastic shaped element absorbs oscillating forces of the primary heatsink in three spatial axes (x,y,z).

Abstract: In order to provide a capacitance element housing unit with which the effect of suppressing heat transfer between capacitance elements can be increased more suitably, a capacitance element housing unit (10) is equipped with: a common package (104), which integrally houses a filter-use capacitance element (14) and a smoothing-use capacitance element (18), and which is provided with a slit part (105) at the location between the filter-use capacitance element (14) and the smoothing-use capacitance element (18) where the temperature is high; a case (102) having cooling flow paths (108) for cooling a DC/DC converter (16) and an inverter (20); and an anchoring part (106) that anchors the common package (104) and the case (102) in the slit part (105).

Abstract: An electronic device includes an upper cover, a lower cover combined with the upper cover, and a heat conducting pillar. An accommodating space is formed by the upper cover and the lower cover. The heat conducting pillar is disposed in the accommodating space and physically connected with the upper cover and the lower cover to balance the temperature of the upper cover and the lower cover.

Abstract: A current converting device comprises a casing, a current converting module arranged in the casing, a buffer structure, and a heat dissipative structure abutting on at least half of an outer surface of the casing. The current converting module has a circuit board. The buffer structure has a first and a second buffer portions disposed on the inner surface of the casing and facing to each other. The circuit board has a thru hole, the second buffer portion passes through the thru hole and inserts into the first buffer portion, the first buffer and the second buffer portions surroundingly define a buffer space and a gap in communication with the buffer space. When the casing is pressed, the air in the buffer space flows out via the gap for reducing the relative speed between the first and the second buffer portions.

Abstract: A power semiconductor system and method for producing a power semiconductor system. In one embodiment, the application relates to a power semiconductor system, comprising a line system for a fluid working medium; wall element having an outer side and an inner side; and a power semiconductor circuit arranged at the outer side of the wall element, wherein the inner side of the wall element forms a fluid-tight wall of the line system.

Abstract: A power converter includes an inverter in an inverter case, and a DC/DC converter in a converter case detachably fixed to the inverter case. The inverter includes power semiconductor modules, and the DC/DC converter includes a down-converter circuit and/or a boost converter circuit. The inverter case includes first and second path-forming members thermally contacting the converter case. In the first path-forming member, the power semiconductor module is inserted into a first coolant path. In the second path-forming member, the power semiconductor module inserted into the second coolant path, which is parallel to the first coolant path. The DC/DC converter includes an inductance device, and a switching device board on which a switching device con rolling electric current in the inductance device is mounted. The inductance and switching devices are in an area of the converter case thermally contacting first and second path forming members.

Abstract: A media content receiving device, such as a set top box, includes a chassis that incorporates a heat bridge, a heat shield or both. The heat bridge may take the form of a structural wall coupled to, but preferably integrated with, the chassis to facilitate conductive heat transfer into a chassis panel. The heat bridge may be configured to receive heat radiated from a chip having a die to be cooled. The heat shield may take the form of a wall-type structure protruding from a chassis panel. For example, the heat shield may extend from a top panel of the chassis in a fin-like or flange-like manner to provide a thermal barrier between adjacent electrical components arranged on a circuit board. While the heat shield protects the adjacent component from potential thermal damage or degradation, it may also operate to transfer heat into the chassis.

Abstract: Resistivity to dust and cooling performance are improved by a simple structure. Electronic apparatus (image display apparatus) 1 includes: housing 31 that forms sealed inner space 33; circuit unit 39 that is provided in inner space 33; first partition plate 34 that is provided in inner space 33 and that has upper/lower partition portion 7, wherein upper/lower partition portion 7 at least partially extends in a lateral direction extending above at least a part of circuit unit 39 and that terminates in front of both lateral sides of housing 31; and first fan 5, 6 that is provided through upper/lower partition portion 7.

Abstract: A liquid cooled power electronics assembly configured to use electrically conductive coolant to cool power electronic devices that uses dielectric plates sealed with a metallic seal around the perimeter of the dielectric plates to form a device assembly, and then forms another metallic seal between the device assembly and a housing. The configuration allows for more direct contact between the electronic device and the coolant, while protecting the electronic device from contact with potentially electrically conductive coolant. Material used to form the dielectric plates and the housing are selected to have similar coefficients of thermal expansion (CTE) so that the reliability of the seals is maximized.

Abstract: Various embodiments in accordance with the present invention provide a housing, a support, and a heat-dissipating assembly for an electronic device. A heat-dissipating opening is disposed on a rear cover of the housing. The heat-dissipating opening is disposed in correspondence with a heat-generating means of the electronic device. A covering means is also disposed on the rear cover of the housing, and the covering means is configured to enable the heat-dissipating opening to be opened and closed. The housing for the electronic device enables the covering means to be operated according to the heat condition of the electronic device, and prevents significant heat accumulation in the electronic device.

Abstract: A display module includes: upper and lower supporting means facing and spaced apart from each other; a display device between the upper and lower supporting means; a middle supporting means surrounding the display device; and a plurality of coupling means combining the upper, middle and lower supporting means to fix and support the display device, wherein each of the plurality of coupling means includes a hook and each of the upper and lower supporting means has a through hole corresponding to the hook.

Abstract: According to one embodiment of the invention, an apparatus comprises a heat dissipation unit, such as a heat sink, that encases wireless logic in order to completely surround such logic. When adapted as a wireless network device, a casing further encases the heat dissipation unit. The casing includes a plurality of slots that are aligned with heat-radiating elements positioned around the periphery of the heat dissipation unit to allow for cooling by convection.

Abstract: Disclosed is a member that contains electronic components. Using the member, when, for example, a vehicle or the like carrying electronic components such as an inverter collides with an external object, there is prevented damage to a housing containing the electronic components, which would otherwise occur due to interfering objects. Furthermore, the disclosed member can dissipate heat produced by the contained electronic components. The member includes a housing for containing electronic components, a cooling passage that is provided inside the housing and uses a refrigerant to cool the electronic components, and a heat dissipation part that dissipates heat from the cooling passage and prevents the housing from being damaged by impacts from external interfering objects.

Abstract: A shell structure suitable for an electronic device is provided. The electronic device has a heat generating element. The shell structure includes a core layer, a first material layer, and a second material layer. The core layer includes a thermal insulating area and a thermal conducting area. The core layer has first and second surfaces opposite to each other. The first material layer is configured on the first surface. The second material layer is configured on the second surface. The thermal insulating area is aligned to the heat generating element, and the shell structure covers the heat generating element, such that heat generated by the heat generating element is transferred to the first material layer through the second material layer and the heat conducting area to perform heat dissipation, and a position of the first material layer aligned to the heat generating element is prevented from generating a heat point.

Abstract: A circuit board is hermetically-sealed and housed in a steel case that is composed of a metal base and a metal cover, the cover disposed opposite to a first board surface has a tall flat portion disposed opposite to a connector housing and a short flat portion disposed opposite to a heating component, and the heat generated from the heating component is directly transferred to a heat transfer base portion of the base via a heat transfer mechanism and a heat transfer filling material. Surface finishing in which the coefficients of heat radiation are mutually 0.7 to 1.0 is applied to the surface of the heating component and the opposite inner surface of the cover, and radiation and heat transfer are efficiently performed to the short flat portion of the cover.

Abstract: The present invention provides a flat panel display device, which includes a backlight system and a display panel. The backlight system includes a light source, a light homogenization mechanism, and a back frame. The back frame carries the light source and the light homogenization mechanism, and the light homogenization mechanism guides light from the light source into the display panel. The back frame includes at least two primary assembling pieces and also includes secondary assembling pieces and a bracing piece for fixing a circuit board. According to practical needs of the main frame structure, different materials are used for different parts at different locations. The back frame is provided with the bracing piece for fixing a circuit board, and the bracing piece includes a bracing body, a first suspension section, a first bearing section, and a first resilient bent section. The present invention also provides a stereoscopic display device and a plasma display device.

Abstract: A heat spreader for an integrated circuit has a base portion and a top portion. The base portion is attachable to a surface of the integrated circuit, and has at least one channel extending therethrough. The top portion that is larger than the base portion such that the heat spreader is generally T-shaped in cross-section. The top portion has a hole at its center that extends from a top surface of the top portion to the at least one channel of the base portion. Mold compound is injected through the hole and out through the channels.

Abstract: Electronic device assemblies employing dual phase change materials and vehicles incorporating the same are disclosed. In one embodiment, an electronic device assembly includes a semiconductor device having a surface, wherein the semiconductor device operates in a transient heat flux state and a normal heat flux state, a coolant fluid thermally coupled to the surface of the semiconductor device, and a phase change material thermally coupled to the surface of the semiconductor device. The phase change material has a phase change temperature at which the phase change material changes from a first phase to a second phase. The phase change material absorbs heat flux at least when the semiconductor device operates in the transient heat flux state.

Abstract: Embodiments of various electrical housings, particularly display housings, are provided. In this regard, a representative housing, among others, includes one or more electrical components that are disposed at the housing, a thermal attachment that is designed to transfer heat generated by the one or more electrical components; and a rear enclosure that is designed to engage the thermal attachment. The rear enclosure is further designed to dissipate the heat received from the thermal attachment.

Abstract: An exemplary embodiment of an electronic device includes a cover including a first hole, and a heat dissipating assembly. The heat dissipating assembly includes a movable board including a second hole and slidably connected to the cover, and a heat magnifying device received inside the cover and adjacent to a heat element. The heat magnifying device includes a moving end secured with the movable board. When the heat element is maintained room temperature, the first hole and the second hole are staggered from each other to seal the cover. When heat generated by the heat element heats the heat magnifying device and causes the moving end of the heat magnifying device to move under thermal expansion and drive the movable board to slide relatively to the cover, and the first hole of the cover and the second hole of the movable board are communicated with each other.

Abstract: An electronic device may have electrical components that generate heat. The components may be mounted on a printed circuit board having a peripheral edge with an edge surface. The edge surface may be coated with a layer of metal. Metal traces in the printed circuit board such as ground plane traces may be used to conduct heat from the electrical components to the layer of metal on the edge surface. The edge surface may be separated from an adjacent thermally conductive electronic device housing structure by an air gap. Thermally conductive elastomeric bumper structures may bridge the air gap between the edge surface of the printed circuit and the housing structure. The thermally conductive elastomeric bumper structures may conduct heat from the layer of metal on the edge surface to the housing structure and may serve as a cushioning interface between the printed circuit and the housing structure.

Abstract: A media content receiving device, such as a set top box, includes a chassis that incorporates a heat bridge, a heat shield or both. The heat bridge may take the form of a structural wall coupled to, but preferably integrated with, the chassis to facilitate conductive heat transfer into a chassis panel. The heat bridge may be configured to receive heat radiated from a chip having a die to be cooled. The heat shield may take the form of a wall-type structure protruding from a chassis panel. For example, the heat shield may extend from a top panel of the chassis in a fin-like or flange-like manner to provide a thermal barrier between adjacent electrical components arranged on a circuit board. While the heat shield protects the adjacent component from potential thermal damage or degradation, it may also operate to transfer heat into the chassis.

Abstract: An electronic assembly including a substrate, an electronic component, a fixture, and a housing. The substrate includes a first contact array. The electronic component includes a second contact array. The fixture includes an opening adapted to position the electronic component on the substrate and to connect the second contact array to the first contact array when the fixture is aligned at a first position on the substrate. The housing is adapted to hold the substrate populated with the electronic component. The housing includes a first conductive pathway adapted to connect from an external surface at the housing to the substrate in a serial continuous conductive path when the fixture is aligned at the first position on the substrate. The electronic assembly includes a sensing device connected to the continuous conductive path to detect the integrity of the electronic assembly.

Abstract: In general, the disclosure is directed to sealed enclosures and devices that include enclosures for protecting enclosed heat sensitive components from the heat generated by enclosed heat producing components. Heat producing components within the enclosure may be placed to achieve uniform distribution of heat produced by the heat producing components, to optimize the dissipation of heat from the heat producing components to the enclosure, and to minimize the heat experienced by the heat sensitive components. The exterior of the enclosure may be designed to increase thermal dissipation and to protect against thermal radiation.

Abstract: A computing device is disclosed. The computing device includes a shock mount assembly that is configured to provide impact absorption to sensitive components such as a display and an optical disk drive. The computing device also includes an enclosureless optical disk drive that is housed by an enclosure and other structures of the computing device. The computing device further includes a heat transfer system that removes heat from a heat producing element of the computing device. The heat transfer system is configured to thermally couple the heat producing element to a structural member of the computing device so as to sink heat through the structural member, which generally has a large surface area for dissipating the heat.

Abstract: An electrical device has a housing that includes a main body and a lid both of which are electrically conductive. The lid is fastened to a top surface of a sidewall of the main body so as to cover the main body. On at least one of a bottom surface of the lid and the top surface of the sidewall of the main body, there are formed a plurality of protrusions at predetermined positions; each of the protrusions abuts against that one of the bottom surface of the lid and the top surface of the sidewall which is opposed to the protrusion. Except at those predetermined positions where the protrusions are formed, there is provided, between the bottom surface of the lid and the top surface of the sidewall of the main body, a gap via which the internal and external spaces of the housing communicate with each other.

Abstract: An electrical device includes a printed-circuit board which is fitted with heat-generating components, the printed-circuit board being disposed in a housing of the device, the housing having a housing part, particularly a cup-shaped housing part, and a cooling plate connected to the printed-circuit board being pressed by a wedge against the inner wall of the housing part, in particular, being pressed such that heat from at least one heat-generating component, especially a power module having power semiconductor switches, is able to be dissipated at a contact surface to the housing part.

Abstract: A mobile device includes a housing having a plurality of surfaces. A processor is located within the housing. The processor heats a portion of one or more of the surfaces of the housing. A temperature sensor detects a temperature of the portion of the surface. The rate of energy consumption by the processor is adjusted based on the temperature of the portion of the surface of the housing.

Abstract: A rotary encoder includes a rotary encoding unit attached to a rotary shaft which is rotatably held in a metal casing, a number-of-revolution detection unit supported by the metal casing for detecting a number of revolutions of the rotary encoding unit and producing heat, a cylindrical insulating resin cover having a base end attached to the metal casing for accommodating therein the rotary encoding unit and the number-of-revolution detection unit, a metal lid for blocking an opening of the other end of the insulating resin cover, and a shield cable electrically connected to the number-of-revolution detection unit and drawn out from a cable outlet of the metal lid. A shield of the shield cable is heat-transferably and electrically connected to the metal lid.

Abstract: An enclosure is provided. A housing (120) can have one or more walls (130). At least one of the one or more walls (130) can include a thermally conductive, carbonaceous member (100). The thermally conductive, carbonaceous member (100) can be partially or completely encapsulated within one or more electrically non-conductive materials.

Abstract: Electronic devices incorporating a heat dissipation feature include an enclosure, and at least one heat-generating component positioned within the enclosure. The heat dissipation feature is sufficiently coupled to the at least one heat-generating component to facilitate conductive heat transfer from the heat-generating component. The heat dissipation feature includes a plurality of protrusions exposed externally to the enclosure. A thermally insulating material may be disposed on at least a tip portion of at least some of the protrusions. The thermally insulating material is selected to provide a touch temperature that is below a predetermined threshold. In some instances, the thermally insulating material can provide such a touch temperature by selecting the material to include properties for thermal conductivity (k), density (?), and specific heat (Cp) such that the product of k*?*Cp results in a value less than a product of k*?*Cp for human skin.

Abstract: A communication module is provided. In one embodiment, the communication module includes at least one transceiver, a filter communicatively coupled with the at least one transceiver, a power amplifier communicatively coupled to the at least one transceiver and the filter, a primary module chassis configured to hold the at least one transceiver, the filter, and the power amplifier, and a filter suspension frame assembly attached to the primary module chassis. The filter suspension frame assembly is configured to float the at least one transceiver in relation to the primary module chassis.