Abstract: An apparatus of a junction box component housed in a junction box and designed to be coupled to a power generator. The junction box component may include one or more bypass mechanisms configured to bypass one or more substrings of the power generator in a case of malfunction or mismatch between the substring and the remainder of the power generators. The one or more bypass mechanisms may generate heat which may be transferred out of the junction box. The junction box component may be designed to conduct the heat towards the base of the junction box and/or the cover of the junction box. A heat dissipation mechanism may be mounted on the base and/or the cover. A bypass mechanism may bypass the entire power generator.

Abstract: An integrated multilayer structure includes a substrate film including an electrically insulating material; a circuit design including electrically conductive elements provided on the substrate film, the conductive elements defining a number of contact areas; a connector at the edge of the substrate film, the connector including a number of electrically conductive elongated contact elements, such as pins, connected to the contact areas of the conductive elements of the circuit design on the substrate film while further extending from the substrate film to couple to an external connecting element responsive to mating the external connecting element with the connector; and at least one plastic layer molded onto the substrate film so as to at least partially cover the circuit design and only partially cover the connector.

Abstract: A molded semiconductor package arrangement may comprise a die pad configured to support a semiconductor; a set of leads; and a mold structure that is formed to enclose the semiconductor and the die pad within the mold structure. The set of leads and the die pad may be formed from a same piece of conductive material. An electrical contact plane of the set of leads may be offset from a bottom surface of the die pad. The mold structure may include a molded standoff that is beneath the die pad. A bottom surface of the molded standoff may extend below the electrical contact plane of the set of leads by a threshold distance that corresponds to a thickness of the molded standoff.

Abstract: The present invention discloses a solar cell box for color lights, and aims at providing a solar cell box for color lights with high structural rationality, simple structure and good waterproof effect. Key points of the technical solution of the present invention are as follows: by separating a mounting area of a solar charging panel from a mounting area of cells, the assembling thickness can be effectively reduced, and the transportation expense can be controlled within a reasonable range, so that the transportation cost is reduced. A solar charging panel part is staggered to a lithium cell mounting part, so that the safety can also be improved accordingly, the practicability is high, and the structure is simple. The present invention is applicable to the technical field of power supply apparatuses for color lights.

Abstract: Particular embodiments described herein provide for an electronic device that can be configured to include a printed circuit board, where the printed circuit board has a first side and an opposite second side, a heat source located on the first side of the printed circuit board, a heatsink over the heat source, and one or more fasteners coupled to the heatsink. The one or more fasteners go through the printed circuit board and each of the one or more fasteners includes a printed circuit board securing area that extends along the second side of the printed circuit board to help secure the heatsink to the printed circuit board and create an applied load on the heat source. In an example, a thermal interface material layer less than about one hundred (100) micrometers in in thickness can be between the heat source and the heatsink.

Abstract: An electronic circuitry module and a method of potting an electronic circuit are provided. The electronic circuit module includes at least one heat generating electronic component and is potted in a potting material. Additionally, a cooling circuit is potted in the potting material. The cooling circuit includes an inlet and an outlet for flow of cooling liquid therebetween.

Abstract: A chip package assembly and method for fabricating the same are provided which utilize a stiffener to improve a package substrate against out of plane deformation. In one example, a chip package assembly is provided that includes a package substrate, at least one integrated circuit (IC) die and a stiffener. The package substrate has a first surface and a second surface coupled by a side wall. The at least one IC die is disposed on the first surface of the package substrate. The stiffener is disposed outward of the at least one IC die. The stiffener has a first surface disposed outward of and bonded to the side wall of the package substrate. The stiffener has a second surface bonded to at least one of the first and second surfaces of the package substrate.

Abstract: There is provided an interface module, including an interface for connection with a signal connector, a cage for guiding the signal connector towards the interface and a heat sink. The cage has a cage portion that is configured to move from a first position to a second position upon insertion of the signal connector into the cage. In the first position, the cage portion is not in thermal contact with the heat sink. When in the second position, the cage portion is in thermal contact with the heat sink.

Abstract: A high current, solid state, electrical switch has switch terminal blocks on opposite sides of one or more arrays of parallel connected, solid state, high current, power switching devices mounted on a support. A first terminal of each switching device of each array is directly electrically and thermally bonded to a switch terminal block. A bus bar thermal bridge is directly electrically and thermally bonded to a second terminal of the switching device of each array. A thermally conductive heat sink panel is contoured in alignment with, and has a surface in spaced juxtaposition from, a surface of the bus bar thermal bridge and from surfaces of each of the switch terminal blocks. A thermally conductive, electrically insulating thermal interface material thermally contacts and extends between all said surfaces for conducting heat from the switch terminal blocks and from the thermal bridge to the heat sink panel.

Abstract: Provided is a resin-encapsulated semiconductor device in which heat dissipation characteristic and mounting strength to a substrate are improved. Heat dissipation outer leads connected to inner leads connected to the four corners of a die pad are exposed to the outside of an encapsulating resin to improve the heat dissipation characteristic. The ends of the heat dissipation outer leads are cut in lead frame pressing, and exterior plating films are formed on the entire surfaces of the heat dissipation outer leads including the ends in exterior plating of the resin-encapsulated semiconductor device, permitting easy formation of solder fillet when the semiconductor device is mounted on a substrate.

Abstract: A backing plate is provided. The backing plate is configurable to attach with at least one fastener to a heatsink with the heatsink on a first face of a printed circuit board and in thermal contact with a surface of a component mounted to the first face of the printed circuit board and the backing plate on a second, opposed face of the printed circuit board and in thermal contact with the second face of the printed circuit board. The backing plate has a plurality of fins and configurable to act as a further heatsink for the component and remove heat from the component through a solid portion of the printed circuit board.

Abstract: Techniques and mechanisms for facilitating connection between a packaged device and a substrate of another device. In an embodiment, a device—such as a printed circuit board—comprises a substrate and a hardware interface at a first side of the substrate, the hardware interface to couple the device to a package including integrated circuitry. The device is further configured to couple to a bridge device via contacts disposed at a second side of the substrate. An interconnect extends from the hardware interface to one of the contacts at the second side. In another embodiment, coupling the substrate to the bridge device interconnects two of the contacts at the second side to one another via the bridge device, where one or more contacts of the hardware interface (e.g., only a subset of all such contacts) are also interconnected with the bridge device via the second side.

Abstract: An electrical contact assembly including an elongate stud having a coupling end and an opposing butt end, the butt end having a recess formed therein, the recess having a head portion and a shank portion defining a shoulder at a juncture therebetween, the head portion bounded by a collar and having a diameter that is larger than a diameter of the shank portion, and a contact pad having a head and a shank, the head having a top surface and a bottom surface with a tapered sidewall extending therebetween, the shank extending from the bottom surface of the head and having a diameter that is smaller than a diameter of the bottom surface, wherein the contact pad is disposed within the recess with the bottom surface of the head disposed on the shoulder and with the collar extending over and engaging the angled sidewall of the head.

Abstract: In some examples, a device includes a high-side switch, a first high-side conductive element electrically connected to a first load terminal of the high-side switch, and a second high-side conductive element electrically connected to a second load terminal of the high-side switch. The device also includes a layer of cooling material encapsulating the high-side switch, the first high-side conductive element, and the second high-side conductive element. The device further includes a low-side switch, a first low-side conductive element electrically connected to a first load terminal of the low-side switch, and a second low-side conductive element electrically connected to a second load terminal of the low-side switch. The layer of cooling material encapsulates the low-side switch, the first low-side conductive element, and the second low-side conductive element.

Abstract: A semiconductor device includes a semiconductor chip; a substrate including a first region where the semiconductor chip is mounted and a second region separated from the first region; a conductive member provided at a second face of the substrate, the second face of the substrate is a face opposite to a first face to which the semiconductor chip is mounted; a protecting member, provided at the second face of the substrate to cover the conductive member, and including an opening partially exposing a portion of the conductive member placed at the second region; and an external connection terminal connected to the conductive member through the opening. The protecting member contacts the substrate at a portion corresponding to an outer edge of the first region.

Abstract: The present disclosure provides systems and methods for a package securing system including a top plate, an alignment frame, a gasket, and a back plate. The top plate comprises a thermal conductive member to transfer heat from a central processing unit (CPU) and secure the CPU to a ball grid array (BGA) socket and a printed circuit board (PCB). The alignment frame is configured to align a connection between the BGA socket and the PCB. The gasket is to seal the CPU, the BGA socket, and the alignment frame between the PCB and the top plate. The back plate is configured to couple with the top plate through the PCB.

Abstract: A high-frequency module according to the present disclosure includes: an MMIC; a multilayer substrate on which the MMIC is mounted; a signal wire that is arranged above the multilayer substrate, is connected to the MMIC and is a transmission path that transmits a high-frequency signal outputted from the MMIC; and a ground wire having at least one end that is connected to a ground electrode on an upper surface of the multilayer substrate and that is arranged so as to straddle the signal wire.

Abstract: A monolithic heat-transfer device can include a container wall configured to retain a working fluid, where the container wall is formed of a single material. The container wall also includes an interior surface configured to be in fluid communication with the working fluid. The monolithic heat-transfer device also includes a channel disposed in the interior surface of the container wall, where the channel comprises a microstructure and a nanostructure. The microstructure and the nanostructure are materially contiguous with the single material forming the container wall. In some embodiments, the nanostructure comprises one or more layers of nanoparticles. The monolithic heat-transfer device can be configured as a heat pipe, which can be constructed from the container wall and a second container wall joined together and sealed to one another to contain the working fluid (e.g., using laser welding, electron beam welding (EBW), and so forth).

Abstract: An optoelectronic system includes an optoelectronic module and a heat sink. The optoelectronic module includes a housing and first and second housing slide locks. The first and second housing slide locks extend outward from opposite sides of the housing. The heat sink includes a heat sink bottom, first and second heat sink legs, and first and second heat sink slide locks. The first and second heat sink legs extend downward from opposite ends of the heat sink bottom. The first and second heat sink slide locks extend inward from the first and second heat sink legs. The heat sink bottom is configured to be in thermal contact with a housing top of the housing. Each of the first and second heat sink slide locks is configured to be respectively disposed beneath the first and second housing slide locks when the heat sink is removably secured to the housing.

Abstract: Methods of dicing a wafer into a plurality of singulated dies are disclosed. Some methods coating sidewalls of the singulated dies with a polymer. The polymer may cover cracks formed in the sidewalls as result of dicing the wafer. Other methods may fill cracks formed in the sidewalls with a polymer. Such coating and/or filling of cracks may increase the structural integrity of the die.

Abstract: An object of the present invention is to provide a semiconductor module that can improve the dissipation of heat from semiconductor elements toward a cooling body. A semiconductor module of the present invention includes a plurality of resin-molded semiconductor devices that are mounted on a single metal base and are electrically connected. The plurality of semiconductor devices each have a structure in which a metal heat dissipation plate, which is formed on a surface of an insulating substrate on the side opposite to a semiconductor-element-mount surface, is exposed from a resin mold, and the metal heat dissipation plate is embedded in each opening provided in the metal base, so that the rear surface of the metal heat dissipation plate becomes a plane to be disposed on a cooling body.

Abstract: An apparatus for cooling power components includes a first clamping portion, the first clamping portion having a first arcuate engagement surface, and a first interface. A second clamping portion, the second clamping portion having a second arcuate engagement surface, and a second interface. A flexible heat transfer pad and a power component. The power component is coupled to the flexible heat transfer pad, such that the flexible heat transfer pad substantially surrounds the power component, the first clamping portion and the second clamping portion configured to be coupled, such that the first arcuate engagement surface and the second arcuate engagement surface form an opening contoured to receive the power component, and the first interface and the second interface are adjacent to each other.

Abstract: Described herein is an electrical connection box. In certain aspects the electrical connection box includes a case; a circuit board disposed inside the case; and a connector housing disposed in an opening surrounded by an opening edge portion of a side wall of the case. In certain aspects, the opening edge portion can have a first opening edge portion, a second opening edge portion, and an arcuate notch in which the arcuate notch is configured to reduce, prevent, or inhibit entry of water into the connector housing.

Abstract: An electronic component and cooling system has a printed wiring board, which is planar. An electrical component is mounted on one side of the planar surface of the printed wiring board. A hood is positioned outwardly of the electronic component. Legs on the hood extend to the printed wiring board, and form an inner surface that is positioned away from the one side relative to the electrical component. A chassis has posts connected to the printed wiring board and on an opposed side of the planar surface of the printed wiring board from the electrical component. The chassis extends to a remote portion, beyond the printed wiring board. A heat pipe is generally elongate and positioned on an opposed side of the hood from the electrical component. The heat pipe extends to the remote portion of the chassis to transfer heat from the hood to the chassis.

Abstract: Described herein is an apparatus for dissipating or transferring heat from electronics secured in a housing unit. A housing unit includes a cover having a first fastener part and a base having a second fastener part. The base further includes a support structure for holding a printed circuit board (PCB) with mounted electronic components. A heat sink is placed within the base. The first fastener part and the second fastener part lock the cover and base together, with the heat sink and the PCB being secured between the support structure and the cover.

Abstract: A heat spreader for a resistive element is provided, the heat spreader having a body portion that is arranged over a top surface of the resistive element and electrically insulated from the resistive element. The heat spreader also includes one or more leg portion that extends from the body portion and are associated with the heat sink in a thermally conductive relationship.

Abstract: A circuit element is arranged on an organic substrate and connected to a wiring pattern arranged on the organic substrate. An internal connection electrode is formed on a conductive support body by electroforming so as to obtain a unitary block of the internal connection electrode and the support body. Each end of each of the internal connection electrodes connected into a unitary block by the support body is connected to the wiring pattern. After the circuit element is sealed by resin, the support body is peeled off, so as to obtain individual internal connection electrodes separately and the other end of each of the internal connection electrodes is used as an external connection electrode on the front surface while the external connection electrode on the rear surface is connected to the wiring pattern.

Abstract: Systems, processes, and manufactures are provided that employ a casing associated with an electrical component to provide some, most, substantially all or all electrical insulative protection necessary for the electrical component. This casing may be further employed with potting or other materials to supplement and add additional or different protections for the component. These additional protections can include additional insulative resistance, thermal protection, moisture protection and other buffers to and from the environment.

Abstract: A device for screening an electronic module which has electronic components fixed to a printed circuit board and which is connected to a heat sink. The heat sink comprises an electrically conductive material. The printed circuit board has at least one layer composed of electrically conductive material. The heat sink and the printed circuit board serve as screening elements.

Abstract: A junction box (100) includes a cable connecting box, a cover (2) covering the cable connecting box, and a cable (4) connecting with the cable connecting box. The cable (4) connecting box has an insulative block (5), a number of contacting foils (6), and a number of diodes (31) connecting adjacent contacting foils (6). The junction box (100) further includes a plurality of clips (9) mounted in the insulative block (5) and electrically connecting with the contacting foils (6). The clip (9) includes a clamp spring (91) and an elastic plate (92) received in the clamp spring (91) to resist the clamping spring (91). As a result, the clamp spring (91) will not resist the cable connecting box so as to improve an using life of the junction box (100).

Abstract: An electronic system includes a printed circuit board (PCB), and a heat dissipating element. The PCB includes one or more first electronic components mounted on a first side of the PCB, and one or more second electronic components mounted on a second side of the PCB. The first electronic components have a power consumption that is greater than a threshold and have a height over the first side of the PCB that is higher than any other electronic components mounted on the first side of the PCB. At least one of the second electronic components has a height over the second side of the PCB that is higher than the height of the first electronic components. The heat dissipating element is adjacent to the first electronic components so as to provide a thermal coupling for dissipating heat generated by the first electronic components.

Abstract: A heat dissipation device is mounted in a chassis of an information handling apparatus. The heat dissipation device includes a box and a cooling member, a first heat sink, a second heat sink, and a fan received in the box. A partitioning plate mounted inside the box. The box includes defines two air passage arranged at opposite sides of the partitioning plate. The cooling member is fixed to the partitioning plate. The first and second heat sinks are respectively received in the first and second air passages, and respectively abut cold and hot sides of the cooling member. The fan drives air to flow into the box through the first air passage to be cooled by the first heat sink. At the same time, the fan drives air to flow into the box through the second air passage to absorb heat from the second heat sink.

Abstract: Disclosed is a heat radiation device, which is in contact with a first heat-producing component having a higher value of guaranteed temperature and a second heat-producing component having a lower value of guaranteed temperature, and the heat radiation device comprises a metal member provided with a slit. The metal member is divided by the slit to have two heat radiation regions, a first heat radiation region and a second heat radiation region that are loosely coupled with each other in terms of heat conduction. The first heat-producing component is placed in contact with the first heat radiation region, and the second heat-producing component is placed in contact with the second heat radiation region.

Abstract: An apparatus and method for temperature induced warpage compensation in an integrated circuit package is disclosed. The apparatus consists of bonded layers of material having different thermal coefficients of expansion. The bonded layers are bonded to the top of the integrated circuit package. By appropriate choice of temperature coefficients the layers of material can compensate for either convex or concave warpage. In some embodiments, the layers of material have apertures therein allowing compensation for more complex warpages. As well, in some embodiments the top layer of material does not have a planar cross-section. A method is also disclosed for manufacturing an integrated circuit package assembly. The apparatus and method provide an alternative to methods of dealing with IC package warpage known in the art.

Abstract: A welding system component includes a circuit board for the welding system component. An interface has a main riser portion with a fastener passageway formed therethrough. The interface has an extension portion with a terminal passageway formed therethrough. The extension portion is electrically connected to the circuit board with a terminal disposed in the terminal passageway. The extension portion is spaced away from a surface of the circuit board. A capacitor is electrically connected to the main riser portion with a fastener disposed in the fastener passageway.

Abstract: The present invention relates to a heat dissipation device, which comprises: a fluid, a fluid delivery device, and a circular pipe. The fluid delivery device is for propelling and delivering the fluid, the circular pipe is connected with the fluid delivery device, at least a portion of the circular pipe itself contacting with a heat generation device for conducting heat to the portion of the circular pipe, so as letting the fluid to be delivered by the fluid delivery device for delivering heat to the rest portion of the circular pipe, and to dissipate the heat generation device.

Abstract: The present invention relates to a cage for thermal management and for housing an electronic module. The cage includes top, bottom and side walls joined to form an interior cavity. The side walls form an enclosure having a first panel. A thermally conductive pathway is disposed on the first panel. The enclosure receives an electronic device such as a transceiver module and a heat sink mounted on the first panel. The thermally conductive pathway is disposed between the electronic device and the heat sink so that heat from the electronic device is transmitted via the thermally conductive pathway to the heat sink.

Abstract: A heat dissipation structure includes a circuit board that is disposed inside an outer casing having a chassis formed with air inlet holes, and in which a first electronic component generating heat when driven and a second electronic component not generating heat when driven are mounted on one surface of a base plate, and a heat sink that releases the heat generated in the first electronic component. Here, in the heat sink, a heat dissipation unit positioned facing the base plate, an eaves portion protruding from the heat dissipation unit, and a pair of enclosing portions protruding from ends of the eaves portion in a direction perpendicular to a protruding direction from the heat dissipation unit, and at least one of the air inlet holes is formed in a position facing the eaves portion.

Abstract: A fixing mechanism for fixing an electronic component is disclosed in the present invention. The fixing mechanism includes a first casing, a boss disposed on the first casing. The electronic component is disposed on the boss. The fixing mechanism further includes a resilient component disposed on the boss and located between the first casing and the electronic component, a circuit board putting on the electronic component and fixed on the first casing, and a second casing pressing the circuit board and fixed on the first casing. The circuit board contacts against the electronic component tightly by an assembly of the first casing and the second casing.

Abstract: A converter arrangement includes a housing having a first cooling air channel, at least one capacitor disposed in the housing, a fan for generating a cooling air flow, and a first power electronics module disposed in the housing between the at least one capacitor and the fan, as viewed in a direction of the cooling air flow. The first power electronics module is positioned in relation to the fan so as to only be cooled by a first partial air flow. A second partial air flow provided for cooling the at least one capacitor is routed via the first cooling air channel past the first power electronics module such that the second partial air flow is thermally separated from the first power electronics module.

Abstract: A combinational chassis featuring heat dissipation comprises a chassis body, a base plane shell, and a first side shell and a second side shell, of which the two sides connect to each other in the same direction of the base plane shell. A heat dissipation device comprises a plurality of heat-sink parts on the outside surface of chassis body. The heat-sink part comprises a raised portion integrally connected to the inside, and a joint portion connected to the outside. The raised portion integrally protrudes outwards from the outside surface. The joint portion geometrically protrudes from the raised portion. A wedge groove is formed near the joint portions where an inlet groove is formed. The inlet groove connects and communicates with the wedge groove. The chassis may be connected vertically in stack and/or connected horizontally for expansion to expand the computer system for preferably flexible application and optimal heat dissipation.

Abstract: An electronic module including a supporting frame, a handle, an electronic device, and a heat dissipating member is provided. The handle assembled to the supporting frame is open or closed relative to the supporting frame. The electronic device is detachably assembled on the supporting frame. The heat dissipating member detachably assembled to the handle moves relative to the supporting frame with the handle. When the handle is closed relative to the supporting frame, the electronic device is fixed on the supporting frame by the handle, and the heat dissipating member leans against the electronic device. When the handle is opened relative to the supporting frame, the heat dissipating member is far away from the electronic device.

Abstract: An electronics enclosure is disclosed that provides passive cooling of electronic components while reducing electromagnetic interference (EMI) emissions. The electronics enclosure includes an electronics assembly with at least one electronic component and a heat sink coupled to the electronics assembly. The heat sink has a base portion configured to thermally couple to the at least one electronic component when the heat sink is coupled to the electronic assembly. The electronics enclosure also includes a conductive enclosure forming an enclosed volume around the electronics assembly. The enclosure has a first opening configured to fit around the heat sink and at least one second opening. All non-conductive passages from the volume to the external environment have at least one cross-sectional opening having a continuous conductive perimeter with a maximum linear length within the opening of less than one quarter wavelength of a determined maximum shielding frequency.

Abstract: A power electronics assembly includes a semiconductor device, an insulated metal substrate, and a cooling structure. The insulated metal substrate includes a dielectric layer positioned between first and second metal layers, and a plurality of stress-relief through-features extending through the first metal layer, the second metal layer, the dielectric layer, or combinations thereof. The semiconductor device is thermally coupled to the first metal layer and the plurality of stress relief through-features is positioned around the semiconductor device. The cooling structure is bonded directly to the second metal layer of the insulated metal substrate. Insulated metal substrate assemblies are also disclosed. The insulated metal substrate includes a plurality of stress-relief through-features extending through a first metal layer, a second metal layer, and a dielectric layer. Vehicles having power electronics assemblies with stress-relief through-features are also disclosed.

Abstract: A computer system includes a computer case, a cover, and an air duct. The computer case includes a display, a housing connected to the display. A motherboard is attached to the housing, and a fan module. The motherboard includes a heat generating component. A first input opening and an output opening is defined in the cover. The output opening corresponds to the fan module. The air duct is mounted on the heat generating component. A plurality first holes are defined in the air duct corresponding to the heat generating component. The air duct corresponds to the first input opening to guide air to flow to the heat generating component via the first input opening and the plurality of first holes.

Abstract: According to one embodiment, coupling capacitance in a state in which a first heat radiation member is arranged between parallel flat plates of a first capacitor formed by a surface of a housing opposed to one surface of a printed circuit board and the printed circuit board is smaller than coupling capacitance in a state in which an integrally formed object having a relative dielectric constant of 5.8 is arranged between the first capacitor to cover a first radiating region containing the controller and the first nonvolatile semiconductor memories.

Abstract: An electronic substrate 100D has a tabular base material 110 which can install a heater element 120 and the cooling structure that cools the heater element 120. An electronic substrate 100 can be plugged in/out in the case 200 in the direction which is almost parallel to the face of the base material 110. The cooling structure is installed on the tabular base material 110, and has the first heat radiation part 160D with a hollow shape and the heat transfer part 700. The first heat radiation part 160D with a hollow shape radiates the generated heat of the heater element 120 installed in the base material. The heat transfer part 700 transfers the generated heat of the heater element 120 to the first heat radiation part 160D. The first heat radiation part 160D has the first joint surface 165 formed along a face which is almost vertical to the insert and removal direction W of the base material 110.

Abstract: The invention relates to heat dissipation means for use with electrical and/or electronic apparatus to provide for the improved cooling of at least one component within the housing of the apparatus. The heat dissipation means includes a first portion located internally of the housing at or adjacent to the at least one component to be cooled and the means is formed of a material to allow the same to be passed via the first portion to an interface and onto a second portion located externally of the housing to allow the heat to be dissipated therefrom to the external environment more effectively. This allows heat to be dissipated without the need for moving heat dissipation means to be provided and avoids the noise and/or vibration which can be created.

Abstract: A pluggable module, includes: an insertion gate through which an electronic module is inserted and removed; a guide rail, including a spring support unit provided with a spring unit and a bearing unit located near the insertion gate, to guide the electronic module; and a heat sink plate, including, at one end portion, a fulcrum bar to be inserted into the bearing unit so as to move in a pressing direction of the spring unit, the heat sink plate being pushed up at the other end portion by a leading end of the electronic module so as to be pressed against the electronic module.

Abstract: A mobile terminal is provided. The mobile terminal comprises at least one element, a connector selectively connected to another device to provide a data exchange path between the at least one element and the other device, and a thermal conduction frame having one side coming into contact with the at least one element and the other side coming into contact with the connector to transfer heat generated from the at least one element to the connector. The connector is connected to the element included in the mobile terminal and the other device through the thermal conduction frame to effectively transfer heat generated from the element to the other device through the connector.