Abstract: A chip package structure includes a wiring board, a first chip, a second chip, a thermally conductive material, a molding compound and a heat dissipation part. The wiring board includes a plurality of circuit pads. The first chip is mounted on the wiring board and is electrically connected to at least one of the circuit pads. The first chip is located between the second chip and the wiring board. The thermally conductive material is located on the wiring board and penetrates the second chip and the first chip to extend to the wiring board. The molding compound is disposed on the wiring board, and the heat dissipation part is disposed on the molding material and thermally coupled to the thermally conductive material.

Abstract: The present application discloses a display module (20) and a display apparatus (10). The display panel (10) includes a heat dissipation structure (70) for dissipating heat of a source driver (60). The heat dissipation structure (70) is adhered to an upper surface (61) of the source driver (60) far away from the printed circuit board (50), and at least one side or top corner of the upper surface (61) is not adhered with the heat dissipation structure.

Abstract: A semiconductor device, the device including: a first silicon layer including a first single crystal silicon; a first metal layer disposed over the first silicon layer; a second metal layer disposed over the first metal layer; a first level including a plurality of transistors, the first level disposed over the second metal layer, where the plurality of transistors include a second single crystal silicon; a third metal layer disposed over the first level; a fourth metal layer disposed over the third metal layer, where the fourth metal layer is aligned to the first metal layer with a less than 40 nm alignment error; and a via disposed through the first level, where the first level thickness is less than two microns.

Abstract: A semiconductor device assembly that includes first and second semiconductor devices connected directly to a first side of a substrate and a plurality of interconnects connected to a second side of the substrate. The substrate is configured to enable the first and second semiconductor devices to communicate with each other through the substrate. The substrate may be a silicon substrate that includes complementary metal-oxide-semiconductor (CMOS) circuits. The first semiconductor device may be a processing unit and the second semiconductor device may be a memory device, which may be a high bandwidth memory device. A method of making a semiconductor device assembly includes applying CMOS processing to a silicon substrate, forming back end of line (BEOL) layers on a first side of the substrate, attaching a memory device and a processing unit directly to the BEOL layers, and forming a redistribution layer on the second side of the substrate.

Abstract: A liquid cooling device includes a liquid cooling conductor, a detecting probe, and a determining circuit. The liquid cooling conductor includes a chamber defined therein for communicating with the outside, the chamber is configured to accommodate the coolant, and the surface of the liquid cooling conductor is provided with at least one communicating port communicating with the chamber; wherein the liquid cooling conductor is formed joining at least two combination blocks, and at least one of the two combination blocks is a metal conductor. The detecting probe is disposed on the liquid cooling conductor and normally electrically disconnected from the metal conductor. The determining circuit is electrically connected to the metal conductor and the detecting probe, and generates a liquid leakage alarm signal when the metal conductor and the detecting probe are electrically connected.

Abstract: A heat exchanger includes a fin body and a heat pipe having a first portion disposed on or at least partially within the fin body and a second portion extending from the fin body, wherein the heat pipe includes a hollow core filled with a heat pipe working fluid having a liquid phase that is configured to transition to gas and to be returned to the liquid phase at an operational temperature of the heat exchanger.

Abstract: An electronic device according to various embodiments of the disclosure includes: a housing including a plurality of acoustic holes; an enclosure mounted in the housing; at least one heating element disposed in the enclosure; a heat dissipation structure disposed on the heating element to transfer heat generated from the heating element; and a heat dissipation duct disposed at least partially on the heat dissipation structure to provide a path for transferring the heat transferred from the heat dissipation structure to the outside through the acoustic holes. The heat dissipation structure may include: at least one first heat transfer member coupled to the one heating element; and a second heat transfer member disposed at least partially on the first heat transfer member to transfer, to the heat dissipation duct, heat transferred from the first heat transfer member.

Abstract: Embodiments described herein relate generally to large scale synthesis of thinned graphite and in particular, few layers of graphene sheets and graphene-graphite composites. In some embodiments, a method for producing thinned crystalline graphite from precursor crystalline graphite using wet ball milling processes is disclosed herein. The method includes transferring crystalline graphite into a ball milling vessel that includes a grinding media. A first and a second solvent are transferred into the ball milling vessel and the ball milling vessel is rotated to cause the shearing of layers of the crystalline graphite to produce thinned crystalline graphite.

Abstract: A chip package assembly and method for fabricating the same are provided which utilize a plurality of extra-die heat transfer posts for improved thermal management. In one example, a chip package assembly is provided that includes a first integrated circuit (IC) die mounted to a substrate, a cover disposed over the first IC die, and a plurality of extra-die conductive posts disposed between the cover and substrate. The extra-die conductive posts provide a heat transfer path between the cover and substrate that is laterally outward of the first IC die.

Abstract: Heat management in electronic components is an important factor in managing the performance and longevity of such electronic components. By omitting a thermal interface layer and providing thermal vias between a heatsink and an electronic component, such as a surface mount technology (SMT) package, such components may improve thermal transfer to the heatsink and simplify assembly. Thermal vias may be fused during reflow to the heatsink and/or electronic component. As a benefit to the improved heat transfer provided, electronic components may operate at a lower temperature or be configured to perform greater heat-producing activities.

Abstract: An electronic device module includes a first substrate, at least one electronic device mounted on a lower surface of the first substrate, a second substrate mounted on a lower surface of the first substrate to electrically connect the first substrate to an external source of power, a connecting conductor bonded to a lower surface of the second substrate, and a sealing portion sealing the electronic device, the second substrate, and the connecting conductor, wherein a mounting height of the second substrate is configured to be lower than a mounting height of the electronic device.

Abstract: An electronic control device includes a housing that stores a substrate on which an electronic component is mounted, a first capacitance unit formed between the housing and the electronic component, and a second capacitance unit formed between the housing and the substrate, in which a noise transmission path is formed between the housing and the substrate via the first capacitance unit and the second capacitance unit.

Abstract: A vapor/liquid condensation system includes a condensation unit and an evaporation unit. The condensation unit is connected with the evaporation unit via conduits. The evaporation unit has a liquid inlet, a vapor outlet and an evaporation chamber in communication with each other. The evaporation unit converts liquid-phase working fluid into vapor-phase working fluid, which spreads to the condensation unit. The condensation unit cools and condenses the vapor-phase working fluid into liquid-phase working fluid, which goes back the evaporation unit. After the vapor-phase working fluid enters the condensation unit, the vapor-phase working fluid is distributed and condensed into liquid-phase working fluid. Then the liquid-phase working fluid is collected and then goes back to the evaporation unit. The length of the pipeline is shortened and the pipeline pressure is lowered to avoid interruption of heat dissipation circulation and failure in heat dissipation.

Abstract: This application is directed to a semiconductor system including a substrate, an electronic device, a plurality of compliant interconnects and a support structure. The substrate has a first surface and a plurality of first contacts formed on the first surface. The electronic device has a second surface facing the first surface of the substrate, and a plurality of second contacts formed on the second surface. The compliant interconnects are disposed between the first surface of the substrate and the second surface of the electronic device, and are configured to electrically couple the first contacts on the first surface of the substrate to the second contacts on the second surface of the electronic device. The support structure is coupled to the substrate and the electronic device, and extends beyond a footprint of the electronic device. The support structure is configured to mechanically couple the electronic device to the substrate.

Abstract: An apparatus for a shielding structure for surface-mount components and filters to increase the signal isolation from input signal port to output signal port. An LTCC filter device with an increased rejection of undesired frequencies in a stopband and minimal distortion or loss of desired signals in a passband.

Abstract: An antenna module according to an embodiment of the present disclosure includes a dielectric substrate, a first antenna element, a first radio-frequency element, and a first heat-dissipating component. The first antenna element is provided on the dielectric substrate. The first radio-frequency element supplies electric power to the first antenna element. The first heat-dissipating component directs heat from the first radio-frequency element to the outside. The dielectric substrate, the first radio-frequency element, and the first heat-dissipating component are stacked in this order in the Z-axis direction, which is the direction normal to the dielectric substrate. The first heat-dissipating component includes metal. The first heat-dissipating component has a first width at its first position that differs from a second width at its second position located away from the first position in the Z-axis direction.

Abstract: A solid-state drive device includes a first module including a first region containing a volatile main memory device and a controller device and a second region containing a first nonvolatile memory device, a second module disposed on the first module and having a third region containing a second nonvolatile memory device, the second module being connected to the first module, and a heat dissipating member disposed on the second module as vertically juxtaposed with the first and second modules. The heat dissipating member has a protruding portion protruding toward the first module and in direct thermal contact with the first region, and a plate-shaped portion having a main surface in direct thermal contact with the third region.

Abstract: A semiconductor package may comprise: a first passivation layer forming an electrical connection with one or more first bumps; a substrate layer including a second passivation layer and a silicon layer; a back-end-of-line (BEOL) layer formed on the substrate layer; and a third passivation layer formed on the BEOL layer forming an electrical connection with one or more second bumps, wherein the substrate layer includes a first signal TSV (Through Silicon Via) which transmits a first signal between the BEOL layer and a first lower pad, a second signal TSV which transmits a second signal between the BEOL layer and a second lower pad, and a ground TSV which is disposed between the first signal TSV and the second signal TSV and formed so that one end thereof is connected to the BEOL layer and the other end thereof floats.

Abstract: A light-emitting diode package including a carrier structure, a patterned conductive layer, at least one chip, a dielectric layer, at least one first conductive via, a build-up circuit structure, and at least one light-emitting diode is provided. The patterned conductive layer is disposed on the carrier structure. The chip is disposed on the carrier structure. The dielectric layer is disposed on the carrier structure and encapsulates the chip and the patterned conductive layer. The first conductive via penetrates the dielectric layer and is electrically connected to the patterned conductive layer. The build-up circuit structure is disposed on the dielectric layer and electrically connected to the first conductive via. The light-emitting diode is disposed on the build-up circuit structure.

Abstract: A heat radiation structure of an electric parts assembly, a heat conduction sheet, and a method of manufacturing an electric parts assembly are provided that are capable of reducing a gap between neighboring separate sheets after sheet compression while minimizing an unintentional increase in sheet reaction force. A heat conduction sheet (101A) disposed between a cooler and a heat generating element includes a plurality of separate sheets (102), each of the separate sheets (102) includes a plurality of convex sections protruding circumferentially outward from the sheet and a plurality of concave section recessed circumferentially inward on an outer circumferential edge of a shape when seen in a plan view in a state before being pinched between a cooler and a heat generating element, and the convex sections and the concave sections are disposed to be arranged alternately in a circumferential direction of the separate sheets (102) in a shape when seen in a plan view.

Abstract: To provide a semiconductor device capable of effectively releasing heat from a semiconductor element, the semiconductor device includes a semiconductor element, a heat sink connected thermally to the semiconductor element and a coolant flow channel formed facing the heat sink. The heat sink is integrally composed of multiple cooling fins projecting toward the coolant flow channel. A linear base of each of the multiple cooling fins inclines relative to a direction in which a coolant is supplied through the coolant flow channel. An inclination of a linear base of each of the cooling fins arranged adjacent to each other in the direction relative to the coolant flow direction is substantially opposite from each other.

Abstract: The present disclosure provides a semiconductor device. The semiconductor device includes a substrate, amounting layer, switching elements, a moisture-resistant layer and a sealing resin. The substrate has a front surface facing in a thickness direction. The mounting layer is electrically conductive and disposed on the front surface. Each switching element includes an element front surface facing in the same direction in which the front surface faces along the thickness direction, a back surface facing in the opposite direction of the element front surface, and a side surface connected to the element front surface and the back surface. The switching elements are electrically bonded to the mounting layer with their back surfaces facing the front surface. The moisture-resistant layer covers at least one side surface. The sealing resin covers the switching elements and the moisture-resistant layer.

Abstract: In a general aspect, a semiconductor device assembly can include a substrate, a semiconductor die disposed on the substrate, a thermally conductive spacer having a first side and a second side, the second side being opposite the first side. The first side of the thermally conductive spacer can include a plurality of steps that are coupled with the substrate. The first side of the thermally conductive spacer can also include a surface that is disposed between the plurality of steps, where the surface can be coupled with the semiconductor die.

Abstract: An integrated circuit module, system and method of providing power and signals is disclosed that includes a silicon chip and a package substrate having voltage connections and signal connections. The silicon chip includes a silicon substrate having a top surface, a bottom surface and circuitry formed therein, one or more front-side metal layers formed on the top surface of the silicon substrate, one or more back-side metal layers formed on the bottom surface of the silicon substrate, and one or more through silicon vias (TSVs) formed through the silicon substrate for creating a conductive pathway from the back-side of the silicon substrate to the front-side of the silicon substrate, preferably closest to the silicon substrate.

Abstract: A device that includes a first package and a second package coupled to the first package. The first package includes a first integrated device, a first encapsulation layer encapsulating the first integrated device, a plurality of vias traveling through the first encapsulation layer, a first redistribution portion comprising a first plurality of redistribution interconnects, wherein the first redistribution portion is coupled to the first encapsulation layer, and a first plurality of contacts coupled to the first integrated device.

Abstract: Methods, computer program products, and systems are presented. There can be provided for example: obtaining user defined connectivity pattern information; and establishing commands for provisioning one or more network device for implementation of a network connection based on the user defined connectivity pattern information.

Abstract: The disclosure describes a heat-dissipating object having a reservoir structure so that a reservoir system can be formed in an electronic device, allowing for a liquid TIM in the gap between the heat-dissipating object and the electronic device. The reservoir structure comprises a seal ring, a connecting hole and a reservoir which is a tube for taking in a liquid material and releasing it again when needed. A heat-dissipating object, including a heat sink, a cold plate and a vapor chamber and an electronic device, including a flip chip package and a lidded flip chip package are particularly described in details of the embodiments of the present invention.

Abstract: A method for forming a semiconductor package structure includes stacking chips to form a chip stack over an interposer. The method also includes disposing a semiconductor die over the interposer. The method also includes filling a first encapsulating layer between the chips and surrounding the chip stack and the semiconductor die. The method also includes forming a second encapsulating layer covering the chip stack and the semiconductor die. The first encapsulating layer fills the gap between the chip stack and the semiconductor die.

Abstract: A module that has excellent heat dissipation performance and enables height reduction easily is provided. The module includes a wiring substrate, a plurality of components mounted on the top surface of the wiring substrate, a plurality of heat dissipation members, a sealing resin layer laminated on the top surface of the wiring substrate, and a shield film that covers surfaces of the sealing resin layer. The heat dissipation member is formed into a strip-shaped sheet. In addition, both end portions of the heat dissipation member are in contact with the top surface of the wiring substrate and also with the components disposed between the both end portions. The heat dissipation member thereby forms a heat dissipation path that transmits heat generated by the component to the wiring substrate.

Abstract: A heat transfer apparatus and method of manufacture is disclosed. The manifold may have a first mechanical interface, a second mechanical interface remote from the first mechanical interface and one or more internal walls defining at least first and second channels within the manifold between the first and second mechanical interfaces. An evaporator member may be attached to the manifold so as to seal the first mechanical interface. A condenser member may be attached to the manifold so as to seal the second mechanical interface. The manifold, evaporator and condenser members may provide a contained heat transfer system in which a working fluid moves between the condenser member and the evaporator member.

Abstract: A pluggable electronic device includes a base, a heat source module and an upper cover. The base is made of a metal material. The heat source is disposed at the base. The upper cover covers the heat source module, is connected to the base, and includes an enclosed cavity and an operating fluid cyclically performing evaporation and condensation in the enclosed cavity.

Abstract: The present disclosure describes heat dissipating structures that can be formed either in functional or non-functional areas of three-dimensional system on integrated chip structures. In some embodiments, the heat dissipating structures maintain an average operating temperature of memory dies or chips below about 90° C. For example, a structure includes a stack with chip layers, where each chip layer includes one or more chips and an edge portion. The structure further includes a thermal interface material disposed on the edge portion of each chip layer, a thermal interface material layer disposed over a top chip layer of the stack, and a heat sink over the thermal interface material layer.

Abstract: Heat sink and heat sink arrangements are provided for an electronic device immersed in a liquid coolant. A heat sink may comprise: a base for mounting on top of a heat-transmitting surface of the electronic device and transferring heat from the heat-transmitting surface; and a retaining wall extending from the base and defining a volume. A heat sink may have a wall arrangement to define a volume, in which the electronic device is mounted. A heat sink may be for an electronic device to be mounted on a surface in a container, in an orientation that is substantially perpendicular to a floor of the container. Heat is transferred from the electronic device to liquid coolant held in the heat sink volume. A cooling module comprising a heat sink is also provided. A nozzle arrangement may direct liquid coolant to a base of the heat sink.

Abstract: Some embodiments may include a porous silicon carbide substrate plugged with dielectric material, the porous silicon carbide substrate including a first side to couple to a heat source and a second side to couple to an electrically conductive surface, wherein the second side is opposite the first side; wherein in the case that an opening on the area of the first side forms a channel with an opening on an area of the second side, a portion of the dielectric material located in the channel is arranged to prevent an electrical short from forming through the porous silicon carbide substrate to the electrically conductive surface. In some examples, the heat source may be one or more semiconductor laser diode chips. Other embodiments may be disclosed and/or claimed.

Abstract: A stacked semiconductor microcooler includes a first and second semiconductor microcooler. Each microcooler includes silicon fins extending from a silicon substrate. A metal layer may be formed upon the fins. The microcoolers may be positioned such that the fins of each microcooler are aligned. One or more microcoolers may be thermally connected to a surface of a coolant conduit that is thermally connected to an electronic device heat generating device, such as an integrated circuit (IC) chip, or the like. Heat from the electronic device heat generating device may transfer to the one or more microcoolers. A flow of cooled liquid may be introduced through the conduit and heat from the one or more microcoolers may transfer to the liquid coolant.

Abstract: The semiconductor device includes a wiring substrate, a first and second semiconductor chips, and the heat sink. The wiring substrate has a first surface. The first and second semiconductor chips are disposed on the first surface. The heat sink is disposed on the first surface so as to cover the first semiconductor chip. The heat sink has a second surface and the third surface opposite the first surface. The second surface faces the first surface. The heat sink has a first cut-out portion. The first cut-out portion is formed at a position overlapping with the second semiconductor chip in plan view, and penetrates the heat sink in a direction from the third surface toward the second surface. The second surface is joined to at least four corners of the first surface.

Abstract: A heat sink having a flexible heat sink base is disclosed in order to flex the heat sink into contact with concave heat sources. Flexibility is achieved by providing a series of concentric grooves on the heat sink base on a surface opposite the surface contacting the heat source. A central cylinder is provided at the center of the concentric grooves. A biasing device, such as a spring, exerts a force on the central cylinder to flex the heat sink base.

Abstract: A stacked semiconductor microcooler includes a first microcooler and a second microcooler. The microcoolers may be positioned such that the fins of each microcooler are vertically aligned. The microcoolers may include an inlet passage to accept coolant and an outlet passage to expel the coolant. One or more microcoolers may be thermally connected to an electronic device heat generating device, such as an integrated circuit (IC) chip, or the like. Heat from the electronic device heat generating device may transfer to the one or more microcoolers. A flow of cooled liquid may be introduced through the passages and heat from the one or more microcoolers may transfer to the liquid coolant.

Abstract: A semiconductor package structure includes a package substrate, a semiconductor die, a vapor chamber and a heat dissipating device. The package substrate has a first surface and a second surface opposite to the first surface. The semiconductor die is electrically connected to the first surface of the package substrate. The vapor chamber is thermally connected to a first surface of the semiconductor die. The vapor chamber defines an enclosed chamber for accommodating a first working liquid. The heat dissipating device is thermally connected to the vapor chamber. The heat dissipating device defines a substantially enclosed space for accommodating a second working liquid.

Abstract: A coil built-in multilayer substrate includes a multilayer substrate, a coil, interlayer connection conductors, and gaps. The multilayer substrate includes a magnetic layer, a component-mounting land conductor provided on a first principal surface, and a terminal conductor provided on a second principal surface. The coil is provided in the magnetic layer and includes an axis extending in a direction perpendicular or substantially perpendicular to the first and second principal surfaces. The interlayer connection conductors are provided in the magnetic layer in a region inside the spiral coil. Gaps penetrate lateral surfaces of the interlayer connection conductors.

Abstract: A compliant pin fin heat sink includes a flexible base plate having a thickness of from about 0.2 mm to about 0.5 mm. A plurality of pins extends from the flexible base plate and is formed integral with the flexible base plate by forging. A flexible top plate is connected to and spaced from the flexible base plate. The plurality of pins is disposed between the flexible base plate and the flexible top plate.

Abstract: An optical module using an optical assembly for optical transmission and reception is disclosed. At least one embodiment of the present disclosure provides an optical module which can improve the productivity by enabling efficient optical alignment and optical coupling between optical devices and optical fibers in an optical transmission-reception module using a plurality of optical fibers while increasing the data transfer rate per unit module.

Abstract: Indium-based interface systems, structures, and methods for forming the same are provided. The disclosed indium-based interfaces may be formed as solid structures between two solid surfaces by providing a solid indium-based material between the two surfaces, and heating the indium-based material above its melting point while in contact with each of the two surfaces to cause the indium-based material to reflow or otherwise liquefy between the two surfaces. The indium-based material may then be cooled below its melting point to form a solid interface material structure that is positioned between and in contact with each of the surfaces.

Abstract: A semiconductor package apparatus includes a passive device that is embedded in a bottom package stiffener, and a top stiffener is stacked above the bottom package stiffener. Electrical connection through the passive device is accomplished through the stiffeners to a semiconductor die that is seated upon an infield region of the semiconductor package substrate.

Abstract: A semiconductor package includes a first semiconductor chip, a second semiconductor chip attached to an upper surface of the first semiconductor chip, a silicon heat-dissipation body thermally connected to at least one of the first semiconductor chip and the second semiconductor chip, and a molding member configured to surround the first semiconductor chip and the second semiconductor chip and exposing an upper surface of the silicon heat-dissipation body.

Abstract: A circuit block assembly is provided that includes circuit blocks that each include a circuit board and a semiconductor element that is disposed on a first main surface of the circuit board. Moreover, each of the circuit blocks includes a metal heat spreader that is connected to the semiconductor element directly or by a thermally conductive member interposed therebetween. A thermally conductive sheet is provided that is thermally connected to the heat spreader. The thermally conductive sheet has a specific electrical resistance higher than a specific electrical resistance of the heat spreader.

Abstract: Provided are a thermal interface material layer and a package-on-package device including the same. The package-on-package device may include a thermal interface material layer interposed between lower and upper semiconductor packages and configured to have a specific physical property. Accordingly, it is possible to prevent a crack from occurring in a lower semiconductor chip, when a solder ball joint process is performed to mount the upper semiconductor package on the lower semiconductor package.

Abstract: A method is disclosed for implementing a scheme to configure thermal management control for a memory device resident on a memory module for a computing platform. A method is also disclosed for implementing the configured thermal management control. In a run-time environment for a computing platform a temperature is obtained from a thermal sensor monitoring the memory module. The memory module is in a given memory module with thermal sensor configuration that includes the memory device. An approximation of a temperature for the memory device is made based on thermal information associated with the given configuration of the memory module and the obtained temperature. The configured thermal management control for the memory device is implemented based on the approximated temperature. Other implementations and examples are also described in this disclosure.

Abstract: Provided is a power chip integration module including: a first semiconductor chip; a second semiconductor chip; a wiring layer on an upper surface or a lower surface of the first semiconductor chip and the second semiconductor chip to electrically connect the first semiconductor chip and the second semiconductor chip; an internal electrode extending from an internal electrode pad on an upper surface of at least one of the wiring layer, the first semiconductor chip, the second semiconductor chip, and combinations thereof to an external solder pad formed on an installation surface of the first semiconductor chip and the second semiconductor chip; and a first molding member in a shape to surround at least a portion of the first semiconductor chip, the second semiconductor chip, and the internal electrode.

Abstract: An electrical-circuit assembly includes an electrical-device and a heat-sink. The heat-sink has a base having a first-surface and a second-surface. The first-surface is in thermal communication with the electrical-device. The heat sink also has a lid having a third-surface and a fourth-surface. The third-surface faces toward the second-surface. The heat sink also has side-walls disposed between the base and the lid extending from the second-surface to the third-surface. The base, the lid, and the side-walls define a cavity. The heat sink also has a porous-structure extending from the second-surface toward the third-surface terminating a portion of the distance between the second-surface and the third-surface thereby defining a void between the porous-structure and the third-surface. The base, the side-walls, and the porous-structure are integrally formed of a common material. The porous-structure is characterized as having a contiguous-porosity network.