Abstract:
The electronic package includes a substrate that includes a plurality of dielectric layers and conductive routings between the plurality of dielectric layers; wherein the substrate further includes a plurality of thermal finned vias that electrically connect the conductive routings within the substrate to one another; and an electronic component mounted on the substrate, wherein the finned via transfers heat from the electronic component to the substrate and electrically connects the conductive routings within the substrate to the electronic component.
Abstract:
Some forms relate to a stretchable computing device that includes a stretchable body; a first electronic component embedded within the stretchable body; a second electronic component embedded within the stretchable body; and wherein the first electronic component and the second electronic component are connected by stretchable electrical connectors that include vias. The stretchable electrical connectors are non-planar and/or may have a partial zig-zag shape and/or a partial coil shape. In some forms, the stretchable computing device further includes a textile attached to the stretchable body.
Abstract:
The invention concerns a method for producing a printed circuit for a chip card module. This method involves producing two layers of electrically conductive material insulated from each other by a layer of insulating material, connection holes extending through the layer of insulating material and blocked by one of the layers of electrically conductive material, an area free of conductive material being provided in the other layer of electrically conductive material around the connection holes. The invention also concerns a printed circuit for a chip card produced using this method and a chip card module including such a printed circuit.
Abstract:
Prepregs having a UV curable resin layer located adjacent to a thermally curable resin layer wherein the UV curable resin layer includes at least one UV cured resin portion and at least one UV uncured resin as well as methods for preparing flexible printed circuit boards using the prepregs.
Abstract:
A multi-layer interposer substrate includes multiple layers of single interposer substrates. Each single interposer substrate has a first array of interposer interconnects, each interposer interconnect in the first array of interposer interconnects corresponding to interconnects in an array of processor interconnects, a second array of interposer interconnects, each interposer interconnect in the second array of the interposer interconnects corresponding to an array of circuit interconnects on a circuit substrate, and at least one conductive trace in the interposer substrate in connection with at least one interconnect in the first array of interposer interconnects. The conductive trace has a parallel portion parallel to the interposer substrate such that no electrical connection exists between the interconnect and a corresponding one of the interposer interconnects in the second array of interposer interconnects. An array of connections for a peripheral circuit on each single interposer is connected to the at least one conductive trace.
Abstract:
A circuit device includes: a heat sink having an upper surface orthogonal to a first direction; a plurality of first partition plates attached to the upper surface and extending in a second direction orthogonal to the first direction; a plurality of second partition plates attached to the upper surface and extending in a third direction orthogonal to the first direction and the second direction; a circuit component; a substrate electrically connected to the circuit component; and a first heat transfer member. The circuit component is housed in a space surrounded by two adjacent first partition plates, two adjacent second partition plates, and the upper surface. The first heat transfer member is disposed between the first partition plate and the circuit component.
Abstract:
A power module is provided. In the power module, electrical connection to the outside is enabled through a FPCB made to be flexible and deformable, and as terminals for signal transmission and wire bonding for connecting terminals are eliminated, insulation is ensured and the overall size is reduced.
Abstract:
A wiring body disposed above a substrate including a conductor including: a via electrode provided in a via hole formed in an insulating layer above the substrate and connected to the conductor through the via hole; and wiring provided above the substrate with the insulating layer interposed therebetween. A lower layer included in the via electrode and located above the insulating layer and a lower layer included in the wiring include the same material.
Abstract:
The present disclosure provides a multilayer wiring structure, including a plurality of dielectric layers, a plurality of conductive wiring layers interleaved with the plurality of dielectric layers, wherein the plurality of conductive wiring layers includes copper-phosphorous alloys (such as Cu3P).
Abstract:
Embodiments include a package substrate, a method of forming the package substrate, and a semiconductor package. A package substrate includes a conductive layer in a dielectric, a first trace and a first via pad of the conductive layer having a first thickness, and a second trace and a second via pad of the conductive layer having a second thickness. The second thickness of second trace and second via pad may be greater than the first thickness of the first trace and first via pad. The dielectric may include a first dielectric thickness and a second dielectric thickness, where the second dielectric thickness may be less than the first dielectric thickness. The package substrate may include a third via having a third thickness on the first via pad, and a fourth via having a fourth thickness on the second via pad, wherein the third thickness is greater than the fourth thickness.