Abstract: A semiconductor manufacturing device has a cooling pad with a plurality of movable pins. The cooling pad includes a fluid pathway and a plurality of springs disposed in the fluid pathway. Each of the plurality of springs is disposed under a respective movable pin. A substrate includes an electrical component disposed over a surface of the substrate. The substrate is disposed over the cooling pad with the electrical component oriented toward the cooling pad. A force is applied to the substrate to compress the springs. At least one of the movable pins contacts the substrate. A cooling fluid is disposed through the fluid pathway.

Abstract: The technology relates to a cage configured to removably receive a module. The cage may include a frame comprising a plurality of panels joined to one another, a lever pivotably coupled to the frame, and a heatsink pivotably coupled to the lever. The panels together may extend around a longitudinal recess configured to receive the module therein. The longitudinal recess may define a longitudinal axis thereof. A first one of the panels may have an aperture defined therein in communication with the longitudinal recess. A first end of the lever may extend into the longitudinal recess. The heatsink may be pivotably coupled to a second end of the lever opposite the first end. The heatsink may be movable in a translation direction transverse to the longitudinal axis. The heatsink may be translatable between a first position outside of the longitudinal recess and a second position partially inside the longitudinal recess.

Abstract: A circuit board assembly for electronic devices includes a circuit board having a first surface and a second surface opposite the first surface, and a heat sink carrier disposed on the first surface of the circuit board. The heat sink carrier includes at least one clamp portion. The assembly also includes a heat sink. The heat sink is positioned in the at least one clamp portion of the heat sink carrier to transfer heat from one or more electronic devices to the heat sink via the heat sink carrier.

Abstract: A retaining clip that provides a method for securing electrical connections between male and female electrical connectors is disclosed. Current locking mechanisms are on both the electrical plug and the connector. These locking mechanisms often break when disconnecting the plug. Some embodiments of the present invention eliminate the need for the locking mechanisms. Furthermore, in cases where the mechanisms have been broken, some embodiments provide a method for reusing the electrical plug and/or the connector.

Abstract: Provided is a lighting apparatus. The lighting apparatus includes one or more light-emitting modules; a base plate having a bottom surface to which the one or more light-emitting modules are attached; and a heat dissipation fin assembly seated on a top surface of the base plate, wherein the heat dissipation fin assembly includes a plurality of heat dissipation fins which are mounted upright on the top surface of the base plate, wherein each of the heat dissipation fins has a predetermined width in a radial direction from a center of the base plate, and is formed by a thin sheet of a graphite material.

Abstract: A connector for a multi-array bottom side array is described that uses a spring bias. In one example, a connector includes a connector housing, the connector housing having a bottom surface, and a plurality of resilient connectors opposite the bottom surface to electrically connect to a corresponding plurality of pads of an integrated circuit package, a cable connector to electrically connect the resilient connectors to a cable, a base plate having a bottom surface to press against a circuit board, and a top surface opposite the bottom surface, and plurality of spring members coupled between the base plate and the connector bottom surface to press the base plate bottom surface against the system board and to press the connector housing connectors against the package.

Abstract: A structure may include bond elements having bases joined to conductive elements at a first portion of a first surface and end surfaces remote from the substrate. A dielectric encapsulation element may overlie and extend from the first portion and fill spaces between the bond elements to separate the bond elements from one another. The encapsulation element has a third surface facing away from the first surface. Unencapsulated portions of the bond elements are defined by at least portions of the end surfaces uncovered by the encapsulation element at the third surface. The encapsulation element at least partially defines a second portion of the first surface that is other than the first portion and has an area sized to accommodate an entire area of a microelectronic element. Some conductive elements are at the second portion and configured for connection with such microelectronic element.

Abstract: A fixing apparatus for fixing a waveguide plate includes a number of conductive fixing members fixed to corresponding sides of the waveguide plate, and a bracket. Each fixing member includes a fixing portion having an identical length to the corresponding sidewall and a resilient abutting portion extending from a side of the fixing portion. Each fixing portion is in tight contact with the corresponding side of the waveguide plate. The waveguide plate is received in the bracket. The resilient abutting portions resiliently abut against an inner surface of the bracket.

Abstract: According to an exemplary embodiment, a dual compartment semiconductor package includes a conductive clip having first and second compartments. The first compartment is electrically and mechanically connected to a top surface of the first die. The second compartment electrically and mechanically connected to a top surface of a second die. The dual compartment semiconductor package also includes a groove formed between the first and second compartments, the groove preventing contact between the first and second dies. The dual compartment package electrically connects the top surface of the first die to the top surface of the second die. The first die can include an insulated-gate bipolar transistor (IGBT) and the second die can include a diode. A temperature sensor can be situated adjacent to, over, or within the groove for measuring a temperature of the dual compartment semiconductor package.

Abstract: The described embodiments of forming bonding structures for package on package involves removing a portion of connectors and molding compound of the lower package. The described bonding mechanisms enable easier placement and alignment of connectors of an upper package to with connector of a lower package. As a result, the process window of the bonding process is wider. In addition, the bonding structures have smoother join profile and planar joint plane. As a result, the bonding structures are less likely to crack and also are less likely to crack. Both the yield and the form factor of the package on package structure are improved.

Abstract: According to one embodiment, a semiconductor apparatus includes a semiconductor device, a heat spreader, a regulating unit, a containing unit, and a holding unit. The heat spreader is bonded to the semiconductor device with an interposed solder layer. The regulating unit is configured to regulate a dimension between the semiconductor device and the heat spreader. The containing unit is configured to contain melted solder in an interior of the containing unit. The holding unit is configured to allow melted solder held in an interior of the holding unit. The holding unit is configured to replenish the melted solder in the case where an amount of the melted solder contained in the containing unit is insufficient. The holding unit is configured to recover the melted solder in the case where the amount of the melted solder contained in the containing unit is excessive.

Abstract: According to an exemplary embodiment, a dual compartment semiconductor package includes a conductive clip having first and second compartments. The first compartment is electrically and mechanically connected to a top surface of the first die. The second compartment electrically and mechanically connected to a top surface of a second die. The dual compartment semiconductor package also includes a groove formed between the first and second compartments, the groove preventing contact between the first and second dies. The dual compartment package electrically connects the top surface of the first die to the top surface of the second die. The first die can include an insulated-gate bipolar transistor (IGBT) and the second die can include a diode. A temperature sensor can be situated adjacent to, over, or within the groove for measuring a temperature of the dual compartment semiconductor package.

Abstract: Flip chip packages having warpage control and methods for fabricating such packages are described. In one embodiment, the flip chip package comprises a package substrate; a chip coupled to the package substrate; and a ring structure coupled to the package substrate and positioned laterally around the periphery of the chip so that a surface of the chip is exposed, wherein the ring structure comprises one or more compressive members, each of the one or more compressive members compressively opposed to a surface of the package substrate to counter or absorb stresses in the package substrate.

Abstract: A 4D device comprises a 2D multi-core logic and a 3D memory stack connected through the memory stack sidewall using a fine pitch T&J connection. The 3D memory in the stack is thinned from the original wafer thickness to no remaining Si. A tounge and groove device at the memory wafer top and bottom surfaces allows an accurate stack alignment. The memory stack also has micro-channels on the backside to allow fluid cooling. The memory stack is further diced at the fixed clock-cycle distance and is flipped on its side and re-assembled on to a template into a pseudo-wafer format. The top side wall of the assembly is polished and built with BEOL to fan-out and use the T&J fine pitch connection to join to the 2D logic wafer. The other side of the memory stack is polished, fanned-out, and bumped with C4 solder. The invention also comprises a process for manufacturing the device.

Abstract: A semiconductor die package. The semiconductor die package includes a semiconductor die, and a lead comprising a flat surface. It also includes a clip structure including a (i) a contact portion, where the contact portion is coupled the semiconductor die, a clip aligner structure, where the clip aligner structure is cooperatively structured with the lead with the flat surface, and an intermediate portion coupling the contact portion and the clip aligner structure.

Abstract: A semiconductor module has a housing (2) and a metal base plate (3). A reliable yet easily producible force-transmitting connection between a semiconductor module and an external heat sink is provided by a mechanical pressure-proof counterpart (4) which is incorporated into the housing (2) and forms a firm connection (14) with a pressure-proof connecting element (10) on the base plate side. The connection is provided with a passage opening (12) for fastening the semiconductor module to the heat sink.

Abstract: An integrated circuit package system includes: providing a protective layer having an opening; forming a conductive layer over the protective layer and filling the opening; patterning a rigid locking lead, having both a lead locking portion and a lead exposed portion, from the conductive layer; connecting an integrated circuit and the rigid locking lead; and forming an encapsulation over the integrated circuit with the lead locking portion in the encapsulation and the lead exposed portion exposed from the encapsulation.

Abstract: An apparatus for heatsink attachment and a method for forming the apparatus. The apparatus includes a substrate, a semiconductor chip on top of and physically attached to the substrate, and a lid on top of the substrate. The lid includes a first thermally conductive material. The apparatus further includes a heatsink on top of the lid. The heatsink includes a second thermally conductive material. The semiconductor chip and the substrate share a common interface surface that defines a reference direction perpendicular to the common interface surface and pointing from the substrate towards the semiconductor chip. The lid is disposed between the substrate and the heatsink. The lid includes a first protruding member. The first protruding member of the lid is farther away from the substrate than a portion of the heatsink in the reference direction.

Abstract: A device can be used for applying a cooling element onto a module. The cooling element has a first side part and a second side part opposite the first side part. The first and second side parts are connected by a region. The device includes a spreader, which is adapted to spread apart the first and second side parts by mechanical pressure action on mutually opposite sides of the first and second side parts, so as to be able to guide a predetermined region of the module between the first and second side parts.

Abstract: An apparatus is provided having an integrated circuit device disposed on a printed circuit board and a heat dissipation device on the integrated circuit device. An actuation screw in a spring plate is urged against a portion of the heat dissipation device by tightening the actuation screw. The actuation screw may be prevented from being tightened beyond a mechanical constraint corresponding to a pre-set calibration for the specific compressive force, which may be greater than or equal to a minimum compressive force corresponding to the greater of a minimum thermal interface pressure and a minimum contact interface pressure. Additionally, a method is provided in which the actuation screw is tightened, but prevented from being tightened beyond the mechanical constraint.

Abstract: A heat dissipation device includes a heat sink, a retention module and a locking device for securing the heat sink to the retention module. The heat sink includes a base for contacting with a heat-generating component. The retention module includes a bottom wall and a first spring clip secured at one side thereof. The locking device is pivotably connected to the retention module and includes a second spring clip attached thereon. The heat sink rests on the bottom wall of the retention module with an end thereof being pressed by the first spring clip, and an opposite end thereof being pressed by the second spring clip. The locking device can be at a released position where the locking device is pivotable, so that the heat sink is removable from the retention module, and a locked position where the locking device presses the base of the heat sink.

Abstract: A trenched field effect transistor is provided that includes (a) a semiconductor substrate, (b) a trench extending a predetermined depth into the semiconductor substrate, (c) a pair of doped source junctions, positioned on opposite sides of the trench, (d) a doped heavy body positioned adjacent each source junction on the opposite side of the source junction from the trench, the deepest portion of the heavy body extending less deeply into said semiconductor substrate than the predetermined depth of the trench, and (e) a doped well surrounding the heavy body beneath the heavy body.

Abstract: A heat dissipation device assembly includes a heat dissipation device mounted on a printed circuit board and a retainer device mounted below the printed circuit board. The retainer device includes a back plate and a crank pivotably mounted to the back plate. The crank includes a pressing portion and a handle for receiving a rotation force. Posts are extended from the heat dissipation device through the printed circuit board to engage with the back plate, thereby to pre-assemble the heat dissipation device on the printed circuit board. The handle is pushed to rotate between a released position and a locked position. In the locked position, the pressing portion extends through the back plate to push the printed circuit board toward the heat dissipation device, whereby an electronic component on the printed circuit board has an intimate contact with the heat dissipation device.

Abstract: Standard solderless connectors extend from a molded package body supporting at least one high power LED. The package includes a relatively large metal slug extending completely through the package. The LED is mounted over the top surface of the metal slug with an electrically insulating ceramic submount in-between the LED and metal slug. Electrodes on the submount are connected to the package connectors. Solderless clamping means, such as screw openings, are provided on the package for firmly clamping the package on a thermally conductive mounting board. The slug in the package thermally contacts the board to sink heat away from the LED. Fiducial structures (e,g., holes) in the package precisely position the package on corresponding fiducial structures on the board. Other packages are described that do not use a molded body.

Abstract: An exemplary semiconductor die package of the invention has a metal-oxide substrate disposed between a first surface of a semiconductor die and a heat-sinking component, with a conductive die clip or one or more electrical interconnect traces disposed between the metal-oxide substrate and the first surface of the semiconductor die. The heat-sinking component may comprise a heat sink, or an adaptor plate to which a heat sink may be coupled. The conductive die clip or electrical trace(s) provides electrical connection(s) to the first surface of the semiconductor die, while the metal-oxide substrate electrically insulates the die from the heat-sinking component, and provides a path of high thermal conductivity between the die and the heat-sinking component. The second surface of the semiconductor die may be left free to connect to a circuit board, or a leadframe or interconnect substrate may be attached to it.

Abstract: A surface mount electronic chip (10) is mounted on a holder (70) and electrically connected to holder terminals (74,76, 80) by the use of a carrier device (30). The carrier device has clips (36) mounted on walls of the carrier frame. The chip is merely pressed into a cavity (48) between inner tabs (44) of the chips. The carrier with the chip in place is merely pressed into a cradle (78) formed in the holder by the holder terminals, so outer tabs (46) of the clips press against the holder terminals.

Abstract: An apparatus for heatsink attachment. The apparatus includes a substrate, a semiconductor chip on top of and physically attached to the substrate, and a lid on top of the substrate. The lid includes a first thermally conductive material. The apparatus further includes a heatsink on top of the lid. The heatsink includes a second thermally conductive material. The semiconductor chip and the substrate share a common interface surface that defines a reference direction perpendicular to the common interface surface and pointing from the substrate towards the semiconductor chip. The lid is disposed between the substrate and the heatsink. The lid includes a first protruding member. The first protruding member of the lid is farther away from the substrate than a portion of the heatsink in the reference direction.

Abstract: A clip includes a body having a first end and a second end. A connecting member extends through the first end of the body. A hook plate is attached to a bottom of the connecting member and an actuating member is pivotally coupled to an upper end of the connecting member. The actuating member is pivotable relative to the hook plate in a first direction so that the actuating member is turnable relative to the hook plate between a locked position and an unlocked position. Furthermore, the actuating member is turnable about an axis of the connecting member in a second direction different from the first direction.

Abstract: A stacked-type chip package structure including a substrate, a first chip, bonding wires, a second chip and B-stage conductive bumps is provided. The first chip is disposed on the substrate, and it has first bonding pads disposed on an active surface thereof. Besides, the first bonding pads are electrically connected to the substrate through the bonding wires. The second chip is disposed above the first chip, and it has second bonding pads disposed on an active surface thereof. The second bonding pads of the second chip are electrically connected to the first bonding pads of the first chip through the B-stage conductive bumps respectively, and each B-stage conductive bump covers a portion of the corresponding bonding wire.

Abstract: In one embodiment, a semiconductor package structure includes a plurality of upright clips having ends with mounting surfaces for vertically mounting the package to a next level of assembly. A semiconductor chip is interposed between the upright clips together with one or more spacers.

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: The light-emitting module according to the present invention comprises a heat dissipation element, a substrate for example a metal core printed circuit board (MCPCB), or FR4 board which is coupled to one or more light-emitting elements and provides a means for operative connection of the light-emitting elements to a source of power. The substrate is positioned such that it is thermally coupled to the heat dissipation element. The light-emitting module further comprises a housing element which matingly connects with the heat dissipation element, wherein the housing element may further comprise an optical element integrated therein for manipulation of the light generated by the one or more light-emitting elements.

Abstract: A heat dissipation device includes a heat sink, a retention module and a clip. The retention module includes a plurality of locking portions. The clip includes a main piece, an operating piece pivotally connecting with the main piece, and a buckling piece pivotally connecting with the operating piece. The main piece includes a pressing beam resting on the heat sink and a clamping portion engaging with a corresponding locking portion of the retention module. By operating the operating piece, the heat dissipation device has two positions, at a first of which a clamping portion of the buckling piece engages with a corresponding locking portion of the retention module and the pressing beam of the main piece presses the heat sink toward the retention module; at a second of the two positions, the clamping portion of the buckling piece disengages from the retention module.

Abstract: A heat sink mounting assembly includes a retention module having a bottom and a pair of posts extending from the bottom. A heat sink is located on the bottom of the retention module. A clip spans across the heat sink and includes a clamping member having first and second legs releasably engaging with the posts of the retention module, and a pressing member having a first end thereof pivotably engaging with a first end of the clamping member. The pressing member has a pressing portion pressing the heat sink toward the retention module when a second end of the pressing member is depressed to engage with a pair of ears formed at a second end of the clamping member.

Abstract: A back plate assembly (100) for a board (200) comprises a back plate (110) abutting against a side of the board and a plurality of posts (120). Each post comprises at least one latching portion (1206) formed thereon. After the latching portions have passed through the back plate and the board, the latching portions are blocked by one of the board and the back plate to secure the back plate to the board. Screws (330) are used to extend through a heat sink (300) to threadedly engage with the posts thereby mounting the heat sink to the board. Thus, the heat sink can have an intimate contact with an electronic component (210) mounted on the board.

Abstract: A heat sink clip and an assembly incorporating such clip are provide. The heat sink clip comprises: a body, an actuating member and a movable fastener. The body has a securing portion formed at one end thereof. The actuating member has a hinge portion thereof. The movable fastener is secured to the hinge portion of the actuating member. The actuating member is pivotably mounted to the securing portion of the body in a direction substantially perpendicular to the body, and the actuating member is turnable relative to the body between a locked position and an unlocked position.

Abstract: A wire fixture (27) is for fastening power wires (246) of a heat-dissipating fan (24) to a supporting surface of a heat dissipation device (20). The heat dissipation device is for dissipating heat from a heat-generating electronic component. The wire fixture includes a catching portion (278) for being attached to an end of the supporting surface, a fixing portion (272) disposed with adhesive thereon, for being fixed to an opposite end of the supporting surface, and a covering portion (276) formed between the catching portion and the fixing portion and being without adhesive spread thereon, for urging the power wires of the heat dissipating fan to the supporting surface. The catching portion is without adhesive thereon.

Abstract: A heat sink assembly (100) includes a heat sink (10) having a plurality of fins (14), a fan handle (24) buckled with the fins and a fan (30) mounted on the heat sink (10) via the fan handle. The fan handle includes a retaining body (26) clasping two adjacent fins having a space therebetween. A screw (22) is extended through the fan and into the space of the two adjacent fins. The retaining body includes a pair of opposite lateral walls (260) clamping opposite sides of the two adjacent fins, for preventing the two adjacent fins from being over expanded outwardly during the insertion of the screw into the space.

Abstract: A semiconductor power circuit in which multiple field effect transistor dies are solder connected between opposed contact surfaces of overlying flat conductors and are clamped by means of spring clips which are arranged in symmetrically opposed relationship. A circuit board also disposed between the clamped surfaces is protected from the clamping forces by means of a soft paper layer with holes registering with similar holes in the circuit board to permit solder pads to pass there through.

Abstract: A method of packaging includes placing a restrainer on a package during processing. The method includes clipping the restrainer in place and then exposing the package to high temperatures. After processing the restrainer is removed. An alternative process attaches a component die to a substrate having a cavity in a first surface. The process may then include dispensing and curing an underfill material in the cavity, and attaching a lid to the first surface of the substrate.

Abstract: A method of packaging includes placing a restrainer on a package during processing. The method includes clipping the restrainer in place and then exposing the package to high temperatures. After processing the restrainer is removed. An alternative process attaches a component die to a substrate having a cavity in a first surface. The process may then include dispensing and curing an underfill material in the cavity, and attaching a lid to the first surface of the substrate.

Abstract: An assembly includes a circuit board with a ball grid array device attached to a first side of the circuit board. A brace surrounding the ball grid array device has a series of mounting holes and a series of members extending between the mounting holes. The brace is removably secured to the first side of the circuit board at the mounting holes.

Abstract: Apparatus and methods for secure attachment of a heat sink to its respective retention clip as well as attachment to an electronic device are presented. One embodiment of a retention clip retention apparatus consists of a protruding hip depending from a side of a heat sink protrusion adapted to capture the retention clip between the hip and the heat sink body. One embodiment of a method for forming the hip consists of using a tool to deform the heat sink protrusion. One embodiment of heat sink lateral retention apparatus consists of one or more split bobbins adapted to attach to the retention clip to prevent lateral motion of the heat sink with respect to the clip.

Abstract: A chip scale package has a semiconductor MOSFET die which has a top electrode surface covered with a layer of a photosensitive liquid epoxy which is photolithographically patterned to expose portions of the electrode surface and to act as a passivation layer and as a solder mask. A solderable contact layer is then formed over the passivation layer. The individual die are mounted drain side down in a metal clip or can with the drain electrode disposed coplanar with a flange extending from the can bottom. The metal clip or drain clip has a plurality, a parallel spaced fins extending from its outwardly facing surface.