Abstract: A microphone assembly includes a substrate, an acoustic transducer, an integrated circuit, and a cover couples to the substrate to enclose a back volume of the microphone assembly in which the acoustic transducer and the integrated circuit are disposed. The acoustic transducer includes a back plate and a diaphragm oriented parallel to the back plate disposed over an aperture in the substrate to receive acoustic signals. The cover is a metallic material with a thickness and a corresponding thermal diffusivity to attenuate incoming radio-frequency signals. The attenuation of the radio-frequency signals prevents ambient noise detectable by the microphone assembly.

Abstract: Reduction in impedance in a lead connected to a semiconductor element is achieved while achieving anchor effect. The semiconductor device includes a heatsink, a semiconductor element, a lead disposed on an upper side of the heatsink, and a molding material formed to cover the lead, the heatsink, and the semiconductor element. Formed on an edge portion of a lower surface in a position, in the heatsink, overlapping with the lead in a plan view is a first convex portion protruding more than an edge portion of an upper surface in the position, and formed on an edge portion of an upper surface in a position, in the heatsink, which does not overlap with the lead in a plan view is a second convex portion protruding more than an edge portion of a lower surface in the position.

Abstract: Electronic unit comprises an housing comprising a top cover; a printed circuit board mounted inside the housing and comprising at least a first heating source element on the top layer of the printed circuit board; the top cover comprises at least a first opening; the electronic unit comprises at least a first thermally conductive insert element distinct from the housing and extending from its top extremity arranged around the first opening, to its bottom extremity in thermal contact with the first heating source element such that heating dissipation of the first heating source element is allowed; fixing means configured to entirely fix the top extremity of the first thermally conductive insert element with the top cover around the first opening.

Abstract: A heat sink and an EMI shield are integrated via injection molding. The heat sink and the EMI shield may be molded together as an integrated unit with an intervening non-electrically conductive layer formed between the heat sink and the EMI shield during the injection molding process. The integrated molded unit could also be molded to a thermally conductive layer comprising another material such as an elastomer suitable for more precisely conforming to the contours of an electrical component for maximizing thermal transfer. Accordingly, the number of steps and amount of materials required to provide thermal dissipation and EMI protection for an electrical component may be reduced.

Abstract: A semiconductor device package includes a conductive base, and a cavity defined from a first surface of the conductive base, the cavity having a bottom surface and a depth. A semiconductor die is disposed on the bottom surface of the cavity, the semiconductor die having a first surface and a second surface opposite the first surface. The second surface of the semiconductor die is bonded to the bottom surface of the cavity. A distance between the first surface of the semiconductor die and the first surface of the conductive base is about 20% of the depth of the cavity.

Abstract: A packaging structure is provided, including a substrate, a first chip, a second chip, and a conductive unit. The substrate includes a metal carrier, a patterned insulation layer disposed on the metal carrier and partially covering the metal carrier, and a patterned conductive layer disposed on the patterned insulation layer. The first chip is disposed on the metal carrier not covered by the patterned insulation layer. The second chip is disposed on the patterned conductive layer and electrically connected to the first chip by the conductive unit.

Abstract: An embodiment of an electronic device includes a circuit component (e.g., a transistor or other component) coupled to the top surface of a substrate. Encapsulation is formed over the substrate and the component. An opening in the encapsulation extends from the encapsulation top surface to a conductive feature on the top surface of the component. A conductive termination structure within the encapsulation opening extends from the conductive feature to the encapsulation top surface. The device also may include a second circuit physically coupled to the encapsulation top surface and electrically coupled to the component through the conductive termination structure. In an alternate embodiment, the conductive termination structure may be located in a trench in the encapsulation that extends between two circuits that are embedded within the encapsulation, where the conductive termination structure is configured to reduce electromagnetic coupling between the two circuits during device operation.

Abstract: A power module package is provided, including a substrate, a first chip, and a second chip. The substrate includes a metal carrier, a patterned insulation layer disposed on the metal carrier and partially covering the metal carrier, and a patterned conductive layer disposed on the patterned insulation layer. The first chip is disposed on the metal carrier not covered by the patterned insulation layer. The second chip is disposed on the patterned conductive layer and electrically connected to the first chip.

Abstract: When forming a module 100 having a configuration in which a column-shaped connection terminal 11, which forms an interlayer connection conductor, and an electronic component 102 are mounted on a wiring substrate 101 and sealed with a resin, the column-shaped connection terminal 11 which has a substantially T-shaped cross section and in which a first end portion has a larger diameter than a second end portion is prepared (the preparation step), an electronic component 102 is mounted on one main surface of the wiring substrate 101 and the connection terminal 11 is mounted on the one main surface in such a manner that the second end portion of the connection terminal 11 having a smaller diameter is connected to the wiring substrate 101 (the mounting step), and the electronic component 102 and the connection terminal 11 are sealed with a resin layer 103 (the sealing step).

Abstract: An acoustic device includes a substrate, a substrate cover, and a plurality of electrical and acoustic components. The substrate cover is disposed on the substrate and the plurality of electrical and acoustic components are disposed on the substrate and under the substrate cover. The substrate cover is constructed of a base metal and the substrate cover comprises a partially plating. The partial plating is arranged so as to prevent solder creep along a surface of the substrate cover.

Abstract: Microelectronic packages and methods for producing microelectronic packages having sidewall-deposited heat spreader structures are provided. In one embodiment, the method includes providing a package body containing a microelectronic device. A heat spreader structure is printed or otherwise formed over at least one sidewall of the package body. The heat spreader structure is thermally coupled to the microelectronic device and is configured to dissipate heat generated thereby during operation of the microelectronic package.

Abstract: A semiconductor package according to embodiments includes: a semiconductor chip including a front electrode on a front surface thereof and a back electrode on a back surface thereof; a front-side cap portion including an air gap in a portion between the semiconductor chip and the front-side cap portion and a front-side penetrating electrode, and is positioned to face the front surface of the semiconductor chip; a back-side cap portion bonded with a first cap portion to hermetically seal the semiconductor chip, includes an air gap at least in a portion between the semiconductor chip and the back-side cap portion and a back-side penetrating electrode, and is positioned to face the back surface of the semiconductor chip; a front-side connecting portion which electrically connects the front electrode and the front-side penetrating electrode; and a back-side connecting portion which electrically connects the back electrode and the back-side penetrating electrode.

Abstract: A light-emitting diode includes a carrier with a mounting face and includes a metallic basic body and at least two light-emitting diode chips affixed to the carrier at least indirectly at the mounting face, wherein an outer face of the metallic basic body includes the mounting face, the at least two light-emitting diode chips connect in parallel with one another, the at least two light-emitting diode chips are embedded in a reflective coating, the reflective coating covering the mounting face and side faces of the light-emitting diode chips, and the light-emitting diode chips protrude with their radiation exit surfaces out of the reflective coating, and the radiation exit surfaces face away from the carrier.

Abstract: A method of assembling a semiconductor device includes providing a substrate having an array of substrate elements linked by substrate corner elements and separated by slots extending between the corner elements. Semiconductor dies are positioned on the substrate elements. A cap, frame and contact structure is provided that has a corresponding array of caps supported by corner legs linking the caps to frame corner elements, frame elements linking the frame corner elements, and sets of electrical contact elements supported by the frame elements. The cap, frame and contact structure is fitted on the substrate with the caps extending over corresponding dies, the frame corner elements extending over the substrate corner elements, and the sets of electrical contact elements disposed in the slots. The dies are connected electrically with the electrical contact elements and the assembly is encapsulated and singulated. Singulating removes the frame elements.

Abstract: A package includes a die, which includes a semiconductor substrate, a plurality of through-vias penetrating through the semiconductor substrate, a seal ring overlapping and connected to the plurality of through-vias, and a plurality of electrical connectors underlying the semiconductor substrate and connected to the seal ring. An interposer is underlying and bonded to the die. The interposer includes a substrate, and a plurality of metal lines over the substrate. The plurality of metal lines is electrically coupled to the plurality of electrical connectors. Each of the plurality metal lines has a first portion overlapped by the first die, and a second portion misaligned with the die. A thermal conductive block encircles the die, and is mounted on the plurality of metal lines of the interposer.

Abstract: Methods of forming a microelectronic packaging structure and associated structures formed thereby are described. Those methods may include attaching a die to a carrier material, forming dielectric material surrounding the die, forming buildup layers in the dielectric material to form a coreless bumpless buildup package structure, and patterning the carrier material to form microchannel structures on the package structure.

Abstract: A package carrier includes a metal substrate, a pad, a dielectric layer, and a circuit layer. The metal substrate has a first surface and a second surface opposite to the first surface. The pad is disposed on the first surface. The dielectric layer is disposed on the first surface and covers the pad. A thickness of the dielectric layer is less than 150 ?m. The circuit layer is embedded in the dielectric layer and connected to the pads.

Abstract: To suppress the reduction in reliability of a resin-sealed semiconductor device. A first cap (member) and a second cap (member) with a cavity (space formation portion) are superimposed and bonded together to form a sealed space. A semiconductor including a sensor chip (semiconductor chip) and wires inside the space is manufactured in the following way. In a sealing step of sealing a joint part between the caps, a sealing member is formed of resin such that an entirety of an upper surface of the second cap and an entirety of a lower surface of the first cap are respectively exposed. Thus, in the sealing step, the pressure acting in the direction of crushing the second cap can be decreased.

Abstract: A method of manufacture of an integrated circuit packaging system includes: providing an array of leads having a jumper lead and a covered contact; coupling an insulated bonding wire between the jumper lead and the covered contact; attaching an integrated circuit die over the covered contact; and coupling a bond wire between the integrated circuit die and the jumper lead including coupling the integrated circuit die to the covered contact through the insulated bonding wire.

Abstract: Microelectronic chip including a semiconductor substrate; at least one area of its surface which is suitable to be electrically connected to a metal frame designed to accommodate the chip; at least one interconnect area formed by a copper-based conductive layer and comprising a connecting device, the interconnect area being connected to the area by a conductor, wherein the area is formed by a layer forming a copper diffusion barrier inserted between interconnect area and the substrate.

Abstract: A method for transferring a pattern to one or more microelectronic layers. A first mask layer, having a patterned feature, and a second mask layer, having another patterned feature, are formed. The first mask layer and the second mask layer are at least partially covered with a film, and openings are formed in the film by removing the other patterned feature of the second mask layer. A pattern of a microelectronic layer is then defined by patterning the patterned feature of the first mask layer through the openings in the film. In one example, the patterned feature of the first mask layer is defined by forming spacers adjacent to the other patterned feature. In another example, the other patterned feature of the second mask layer is defined by removing a portion of the other patterned feature via an anisotropic etching process.

Abstract: Described herein are semiconductor device packages with EMI shielding and related methods. In one embodiment, a semiconductor device package includes: (1) a substrate unit including a grounding element; (2) a semiconductor device disposed adjacent to an upper surface of the substrate unit; (3) a package body disposed adjacent to the upper surface of the substrate unit and covering the semiconductor device; and (4) an EMI shield disposed adjacent to exterior surfaces of the package body and electrically connected to a connection surface of the grounding element. A lateral surface of the package body is substantially aligned with a lateral surface of the substrate unit, and the connection surface of the grounding element is electrically exposed adjacent to the lateral surface of the substrate unit. The grounding element corresponds to a remnant of an internal grounding via, and provides an electrical pathway to ground electromagnetic emissions incident upon the EMI shield.

Abstract: A method of manufacturing a leadless integrated circuit (IC) package comprising an IC chip mounted on a metal leadframe and a plurality of electrical contacts electrically coupled to the IC chip. The IC chip, the electrical contacts, and a portion of the metal leadframe are covered with an encapsulation compound, with portions of the electrical contacts exposed on a bottom surface of the encapsulation compound. The electrical contacts of the IC package having metal traces connecting bonding areas on a top surface thereof and contact areas on a bottom surface thereof, wherein at least some of the bonding areas are laterally disposed from the contact areas connected thereto.

Abstract: A semiconductor package includes a conductive base, a die disposed adjacent to an upper surface of the conductive base, a patterned conductive layer, and a dielectric layer encapsulating the die. The dielectric layer defines an opening through which the patterned conductive layer is electrically connected to the upper surface of the conductive base. The conductive base has a lateral surface including a first portion adjacent to the upper surface of the conductive base and a second portion adjacent to a lower surface of the conductive base, where the second portion is sloped inwardly with respect to the lower surface of the conductive base.

Abstract: An electronic component has a board, a semiconductor element mounted on an upper surface of the board, a ground electrode formed in a region surrounding the semiconductor element on the upper surface of the board, a conductive cap that overlaps the board such that the semiconductor element is covered therewith, and a conductive joining member that joins a whole periphery of a lower surface of the conductive cap to the ground electrode. The conductive cap includes a pressing portion on the lower surface thereof The lower surface of the conductive cap and the ground electrode are joined by the conductive joining member on an outer peripheral side of the pressing portion.

Abstract: A hermetic MEMS device (100) comprising a carrier (110) having a surface (111) including a device (101) and an attachment stripe (122), the stripe spaced from the device and surrounding the device; a metallic foil (102) having a central bulge portion (103) and a peripheral rim portion (104) meeting the stripe, the bulge cross section parallel to the carrier monotonically decreasing from the rim (104) towards the bulge apex (105); and the foil positioned over the carrier surface so that the bulge arches over the device and the rim forms a seal with the stripe.

Abstract: A semiconductor housing is provided that includes a metal support and a semiconductor body, a bottom side thereof being connected to the metal support. The semiconductor body has metal surfaces that are connected to pins by bond wires and a plastic compound, which completely surrounds the bond wires and partially surrounds the semiconductor body. The plastic compound has an opening on the top side of the semiconductor body, and a barrier is formed on the top side of the semiconductor body. The barrier has a top area and a base area spaced from the edges of the semiconductor body and an internal clearance of the barrier determines a size of the opening. Whereby, a portion of the plastic compound has a height greater than the barrier, and a fixing layer is formed between the base area of the barrier and the top side of the semiconductor body.

Abstract: Provided is a method and system for designing an integrated circuit (IC) substrate, the substrate being formed to include at least one die. The method includes providing at least portions of IC power and a grounding function on a metal 2 substrate layer and utilizing all of a metal 3 substrate layer for the grounding function. Portions of the metal 2 layer and a metal 4 layer are utilized for the IC power, wherein all of the IC power is centralized underneath the die.

Abstract: An integrated circuit device includes a die, a lead, and an electrically-conductive structure that is arranged to facilitate electrical communication between the die and the lead. The device also includes a potting material, in which the electrically conductive structure, the die, and at least part of the lead are embedded. An electrically-conductive housing encases the potting material and forms exterior packaging of the device. During manufacturing, the electrically-conductive structure, the die, and at least part of the lead may be arranged within the electrically-conductive housing either before or after the potting material is disposed in the housing. When the integrated circuit device is operating, heat is removable from the die via a thermal conduction path formed by the electrically-conductive structure, the potting material, and the electrically-conductive housing.

Abstract: Disclosed are methods for forming semiconductor devices and the semiconductor devices thus obtained. In one embodiment, the method may include providing a semiconductor wafer comprising a surface, forming on the surface at least one device, forming a release layer at least in an area of the surface that encircles the at least one device, forming on the release layer at least one wall structure around the at least one device, and forming at least one cap on the at least one wall structure. In one embodiment, the device may include a substrate comprising a surface, at least one device formed on the surface, a release layer formed at least in an area of the surface that encircles the at least one device, at least one wall structure formed around the at least one device, and at least one removable cap formed on the at least one wall structure.

Abstract: A method for forming a bump structure and a bump structure for conductive interconnection with another element having at least one of microelectronic devices or wiring thereon, used as an electric connection in an electronic circuit, includes the steps of forming a mandrel by steps including forming at least one opening extending through a bump-forming die body in the thickness direction thereof and positioning a bump-forming die lid on a surface of the bump-forming die body so as to cover one end of the opening and to thereby define a bump-forming recess. The bump-forming die body may be comprised of a metal sheet. A metal layer is formed at least on an inner surface of the bump-forming die lid exposed within the bump-forming recess. The mandrel is removed so as to expose the metal layer and form a bump structure.

Abstract: A light emitting diode package having heat dissipating slugs is provided. The light emitting diode package comprises first and second heat dissipating slugs formed of a conductive material and spaced apart from each other; a package main body coupled to the first and second heat dissipating slugs to support the first and second heat dissipating slugs; and a light emitting diode die electrically connected to the first and second heat dissipating slugs, wherein the respective first and second heat dissipating slugs are exposed to the outside through lower and side surfaces of the package main body. As such, the first and second heat dissipating slugs can be used as external leads.

Abstract: An integrated circuit package system comprising: providing a package substrate; attaching an integrated circuit over the package substrate; and attaching a side substrate adjacent the integrated circuit over the package substrate.

Abstract: Described herein are semiconductor device packages with EMI shielding and related methods. In one embodiment, a semiconductor device package includes: (1) a substrate unit including a grounding element; (2) a semiconductor device disposed adjacent to an upper surface of the substrate unit; (3) a package body disposed adjacent to the upper surface of the substrate unit and covering the semiconductor device; and (4) an EMI shield disposed adjacent to exterior surfaces of the package body and electrically connected to a connection surface of the grounding element. A lateral surface of the package body is substantially aligned with a lateral surface of the substrate unit, and the connection surface of the grounding element is electrically exposed adjacent to the lateral surface of the substrate unit. The grounding element corresponds to a remnant of an internal grounding via, and provides an electrical pathway to ground electromagnetic emissions incident upon the EMI shield.

Abstract: A method for forming a stud bumped semiconductor die is disclosed. The method includes forming a ball at the tip of a coated wire passing through a hole in a capillary, where the coated wire has a core and an oxidation-resistant coating. The formed ball is pressed to the conductive region on the semiconductor die. The coated wire is cut, thereby leaving a conductive stud bump on the conductive region, where the conductive stud bump includes an inner conductive portion and an outer oxidation-resistant layer.

Abstract: An LED package and a fabrication method thereof are provided. The LED package includes an upper metal plate having an LED-receiving hole therein; a lower metal plate disposed under the upper metal plate; and an insulator which the upper metal plate and the lower metal plate from each other. A portion of the lower metal plate is exposed via the LED-receiving hole and an LED is mounted on the exposed portion of the lower metal plate and is electrically connected to both of the upper and lower metal plates. A protective cover encloses and protects exposed surfaces of the upper and lower metal plates.

Abstract: An integrated circuit package system includes: a substrate; a first device attached to the substrate; a shield attached to the substrate and surrounding the first device; apertures formed within the shield; the shield configured to block electromagnetic energy that passes through the apertures; and an encapsulation material deposited through the apertures.

Abstract: A wafer level encapsulation chip and an encapsulation chip manufacturing method. The encapsulation chip includes a device substrate, a circuit module mounted on the device substrate, a bonding layer deposited on a predetermined area of the device substrate, a protection cap forming a cavity over the circuit module and bonded to the device substrate by the bonding layer and encapsulation portions formed on predetermined areas of the bonding layer and the protection cap. Thus, the present invention can minimize damages to a chip upon chip handling and prevent moisture from being introduced into the inside of the chip.

Abstract: A method of manufacturing a sealed electronic component, which can seal a housing in a high-vacuum state while preventing enclosure of a gas within the housing, as well as achieving the improvement in manufacturing efficiency. According to the method, after forming an unwelded section by a primary welding process step, including a first beam irradiation process step and a second beam irradiation process step, annealing treatment is performed in an annealing process step by irradiating an electron beam to a predetermined portion on a locus of the electron beam formed in the first beam irradiation process step. The locus may be on a housing or a lid.

Abstract: An integrated heat spreader, heat sink or heat pipe with pre-attached phase change thermal interface material and a method of making an electronic assembly.

Abstract: A through-silicon via stack package contains package units. Each package unit includes a semiconductor chip; a through-silicon via formed in the semiconductor chip; a first metal line formed on an upper surface and contacting a portion of a top surface of the through-silicon via; and a second metal line formed on a lower surface of the semiconductor chip and contacting a second portion of a lower surface of the through-silicon via. When package units are stacked, the second metal line formed on the lower surface of the top package unit and the first metal line formed on the upper surface of the bottom package unit are brought into contact with the upper surface of the through-silicon via of the bottom package unit and the lower surface of the through-silicon via of the top package unit, respectively. The stack package is lightweight and compact, and can form excellent electrical connections.

Abstract: The invention provides a heat radiating structure which reduces a mechanical stress applied to an electronic part mounted on a printed circuit board including a semiconductor package. The heat radiating structure is constructed by a semiconductor package mounted on a printed circuit board, a thermal conduction sheet arranged on an upper surface of the semiconductor package, and a metal case provided with a heat radiating fin for receiving a heat transmitted form the thermal conduction sheet so as to discharge to an atmospheric air, and the metal case is provided with a concavo-convex structure in a contact portion with the thermal conduction sheet.

Abstract: A semiconductor package and a manufacturing method thereof are provided. The package element has a first insulating layer, and a plurality of holes are disposed on the first surface of the first insulating layer. Besides, a plurality of package traces are embedded in the insulating layer and connected to the other end of the holes. The holes function as a positioning setting for connecting the solder balls to the package traces, such that the signal of the semiconductor chip is connected to the package trace via conductor of the chip, and further transmitted externally via solder ball. The elastic modulus of the material of the first insulating layer is preferably larger than 1.0 GPa.

Abstract: An improved photodiode detector shielding apparatus and method are provided which shield a photodiode detector from electromagnetic interference and ambient light, without affecting the wavelengths of light that reach the photodiode. The improved photodiode detector shield has two layers. A bottom layer is substantially made from an electrically conducting material and is fixed over a photodiode in order to shield it from EMI and ambient light. A top layer is substantially made from a lustrous, shiny, reflective material that reflects an equal amount of light across a band of wavelengths. Both layers have areas with optically transmissive openings, which are aligned to allow for the unobstructed passage of light of a band of wavelengths to the photodiode. Light within a band of wavelengths is evenly reflected off the top of the first surface and also reaches the photodiode.

Abstract: A semiconductor device 100 includes a semiconductor substrate 14, a connection electrode 12 disposed on an upper surface of the semiconductor substrate 14 and connected to an integrated circuit thereon, a through electrode 20 which penetrates the semiconductor substrate 14 and the connection electrode 20, and an insulation portion 30 interposed between the semiconductor substrate 14 and the through electrode 20. The through electrode 20 is integrally formed to protrude outward from upper surfaces of the semiconductor substrate 14 and the connection electrode 12, and connected to the connection electrode 12 in a region where the through electrode 20 penetrates the connection electrode 12.

Abstract: An electronic component has a board, a semiconductor element mounted on an upper surface of the board, a ground electrode formed in a region surrounding the semiconductor element on the upper surface of the board, a conductive cap that overlaps the board such that the semiconductor element is covered therewith, and a conductive joining member that joins a whole periphery of a lower surface of the conductive cap to the ground electrode. The conductive cap includes a pressing portion on the lower surface thereof The lower surface of the conductive cap and the ground electrode are joined by the conductive joining member on an outer peripheral side of the pressing portion.

Abstract: A chip scale package (CSP) device includes a CSP having a semiconductor die electrically coupled to a plurality of solder balls. A can having an inside top surface and one or more side walls defines a chamber. The CSP is housed in the chamber and is attached to the inside top surface of the can. A printed circuit board is attached to the solder balls and to the one or more side walls to provide support to the CSP and to the can. The CSP may be a Wafer-Level CSP. The can may be built from a metallic substance or from a non-metallic substance. The can provides stress relief to the CSP during a drop test and during a thermal cycle test.

Abstract: A method of manufacture of an integrated circuit package system which includes providing a substrate and attaching a first device to the substrate. Attaching a shield to the substrate. Processing the shield to form apertures and configuring the shield to block electromagnetic energy that passes through the apertures.

Abstract: A power module with low thermal resistance buffers the stress put on a substrate during a package molding operation to virtually always prevent a fault in the substrate of the module. The power module includes a substrate, a conductive adhesive layer formed on the substrate, a device layer comprising a support tab, a power device, and a passive device which are formed on the conductive adhesive layer, and a sealing material hermetically sealing the device layer. The support tab is buffers the stress applied by a support pin to the substrate, thereby virtually always preventing a ceramic layer included in the substrate from cracking or breaking. As a result, a reduction in the isolation breakdown voltage of the substrate is virtually always prevented and the failure of the entire power module is do to a reduction in the breakdown voltage of the substrate is virtually always prevented.

Abstract: A workpiece has at least two semiconductor chips, each semiconductor chip having a first main surface, which is at least partially exposed, and a second main surface. The workpiece also includes an electrically conducting layer, arranged on the at least two semiconductor chips, the electrically conducting layer being arranged at least on regions of the second main surface, and a molding compound, arranged on the electrically conducting layer. In the molding compound a contact via is arranged.