67results about "Printed circuit aspects" patented technology

A multilayer wiring board capable of feeding sufficient electric power to a circuit element, such as an IC chip. In one embodiment of the present invention, a multilayer wiring board is comprised of: a core board; a build up layer disposed on an upper surface of the core board; a build up layer disposed on a lower surface of the core board; and a power supply structure embedded in a through hole penetrating the core board and the build up layers. The power supply structure is comprised of: a conductive metal rod made of copper as a main material; a conductive metal tube made of copper as a main material and provided coaxially with the conductive metal rod; and an insulating material filling a gap between the conductive metal rod and the conductive metal tube.

A textile arrangement that includes at least one flexible circuit board integrated with a textile and a fixedly-integrated electronic component in the flexible circuit board. The flexible circuit board includes a flexible and/or tensile substrate, which is configured to bend and/or stretch at least in one direction. In addition, the flexible circuit board includes at least one electrically-conducting trace, at least one end of the trace being coupled with the component. The electrically-conducting trace is configured to bend and/or stretch with the flexible and/or tensile substrate of the circuit board at least in said one direction, when the circuit board is bent and/or stretched.

The invention relates to a folding type display apparatus and electric equipment. The folding type display apparatus comprises a flexible display section, and a plurality of housings, which includes a first housing having a space formed therein, and second and third housings bendably connected to both ends of the first housing. The display section is fixed to the second and third housings, and in a closed state of the second and third housings, a folding portion of the display section is housed in the space formed by the first housing, while in an open state of the second and third housings away from each other, the display section becomes flat, and the first housing functions as a leg protruding from flat surfaces of the second and third housings, so that the second and third housings are fixed to each other and the folding portion of the display section is supported, by a holding member for connecting these housings.

The present invention provides a method for producing an electronic assembly and an electronic assembly with an integrated cooling system for dissipating heat. The electronic assembly comprises a base; and at least one electrical component attached to the base. The base defines an integrated cooling system having a fluid channel spanning within the base and at least one heat exchanger in heat communication with the fluid channel. The integrated cooling system may further include a pump attached to the base for directing the flow of the fluid within the fluid channel, and a port in fluid communication with the fluid channel for receiving fluid from an external source.

An assembly for testing microelectronic devices includes a microelectronic element having faces and contacts, a flexible substrate spaced from and overlying a first face of the microelectronic element, and a plurality of conductive posts extending from the flexible substrate and projecting away from the first face of the microelectronic element, at least some of the conductive posts being electrically interconnected with the microelectronic element. The assembly also includes a plurality of support elements disposed between the microelectronic element and the substrate for supporting the flexible substrate over the microelectronic element. At least some of the conductive posts are offset from the support elements.

A printed circuit board in which an electronic component is embedded and a method of manufacturing the same are provided. The printed circuit board includes a first insulation layer with a first via and a cavity formed therein, the first insulation layer comprising a photosensitive material, an electronic component having at least a portion thereof positioned into the cavity, and a second insulation layer having a second via that is connected with the first via, the second insulation layer being laminated on the first insulation layer so as to embed the electronic component.

This document describes an interactive object with multiple electronics modules. An interactive object (e.g., a garment) includes a plurality of conductive threads woven into the interactive object, and an internal electronics module coupled to the array of conductive thread. The internal electronics module includes a first subset of electronic components, such as sensing circuitry configured to detect touch-input to the grid of conductive thread. An external electronics module that includes a second subset of electronic components (e.g., a microprocessor, power source, or network interface) is removably coupled to the interactive object via a communication interface. The communication interface enables communication between the internal electronics module and the external electronics module when the external electronics module is coupled to the interactive object.

A conductive particle 30 which can be used for connecting a variety of adherends is provided, and the conductive particle 30 includes a resin particle 31, a first conductive particle disposed around the resin particle 31, a first resin coating 25 disposed on the periphery thereof and softer than the resin particle 31, and a second conductive thin film 36 disposed therearound; and if the surface part of, for example, an electrode 13 of an adherend that is to be connected is hard, a first resin coating 35 and the second conductive thin film 36 are destroyed by pressure to bring the second conductive thin film 36 in contact with the electrode 13 and a metal wiring 17. If the surface part of the electrode 13 is soft, the second conductive thin film on the surface side comes in contact with the electrode 13, which makes it possible for the particle to be used regardless of the surface state of an adherend, in other words, be used for connecting a variety of adherends

A surface mount grid array implemented on a PCB (printed circuit board) optimized for trace escape routing for the PCB. The surface mount grid array includes a plurality of connection blocks, with each connection block including an array of pins and an array of vias, wherein the pins and vias are configured to communicatively connect an integrated circuit device to a plurality of traces of the PCB. The connection blocks are disposed in a tiled arrangement, wherein the connection blocks implement a plurality of trace escape channels along connection block boundaries. The trace escape channels are configured for routing traces from inner pins of the surface mount grid array to a periphery of the surface mount grid array.

A package board module wherein a semiconductor chip such as an LSI is mounted on the topside surface of a package board, and a package mounted module wherein the package board is mounted on the motherboard of a large-sized computer or the like. A stiffener for supporting the package board and/or a stiffener for supporting the motherboard each has a bimetal structure wherein a first member and a second member having mutually different thermal expansion coefficients are respectively adhered to each other, so as to cause the stiffeners to warp in harmony with the warpage of the package board and the motherboard caused by a temperature change, thereby preventing stress from arising in the solder-bonded portions.

A semiconductor chip is provided that is highly packageable and particularly well suited for mounting on a circuit board having a curved surface. The semiconductor chip comprises a warpage control film that controls the warpage of a substrate.

A tape carrier with high density wiring patterns and having high flexibility, a tape carrier package using such tape carrier, and a method of manufacturing them. The tape carrier has a base film made of an insulating material and having wiring patterns formed thereon. The tape carrier also has a bending area for bending the tape carrier therein. In the bending hole region, a plurality of round holes are formed regularly. Diameter of each of the holes is larger than a space between the wiring patterns in the bending area. Preferably, the centers of the holes are located at grid points of an assumed predetermined grid and at the intersections of diagonal lines connecting the grid points. Also, the center of each of the plurality of holes is located on the center line of a space between adjacent wiring patterns in the bending area.</PTEXT>

Disclosed herein are a printed circuit board including an electronic component embedded therein and a method for manufacturing the same. The printed circuit board including an electronic component embedded therein includes: a core formed with a cavity which is formed of a through hole and has a side wall formed with an inclined surface having a top and bottom symmetrically formed based on a central portion thereof; an electronic component embedded in the cavity; insulating layers stacked on upper and lower portions of the core including the electronic component; and external circuit layers formed on the insulating layers.

A method for attaching a fusible member to a flexible circuit board includes providing the flexible circuit board including an electrode and a hole near each other, placing the fusible member in the hole, and deforming the fusible member to fix the fusible member to the flexible circuit board. A flexible circuit board includes an electrode, a hole, and a fusible member fixed to the hole and arranged to establish an electrical connection with the electrode when the fusible member is fused to the electrode.

An electronic device includes a dielectric substrate having a first surface, a conductive circuit deposited on the first surface and having a printed conductive ink trace on the first surface, and a conductive interposer mechanically coupled to the substrate. The conductive interposer is electrically coupled to the conductive circuit. The conductive interposer has a separable contact interface configured to be mechanically and electrically connected to a removable contact. Optionally, the conductive interposer may include a main body and a flexible element extending between the main body and the conductive circuit. The flexible element electrically connects the conductive circuit with the main body.

A component assembly that can be easily built in a main substrate with high accuracy is formed such that a glass transition temperature of a built-in-component layer of an assembly substrate in which multiple capacitors are embedded is higher than a glass transition temperature of a built-in-component layer of a built-in-component substrate. Thus, thermal deformation of the component assembly is prevented when the built-in-component substrate in which the component assembly is built is heated during reflow, for example. The component assembly can thus be highly accurately built in the built-in-component substrate. Moreover, when the component assembly in which the multiple capacitors are embedded is built in the built-in-component substrate, electrode pads of the component assembly in which the multiple capacitors are embedded can be electrically connected to wiring layers of the built-in-component substrate by soldering despite the variation in height among the capacitors.

An address signal line having a stub structure connects between at least three memory elements and a data transferring element and transmits address signals for the memory elements. An address terminal of the data transferring element has an impedance lower than a characteristic impedance of the address signal line. A wiring length TL0 from the data transferring element to a first branch point S1 where a branch line is branched at a shortest distance from the data transferring element is configured to become equal to or greater than a wiring length TL1 from the first branch point S1 to a second branch point S2 where a second branch line is branched. A wiring length TL3 from the second branch point S2 to a third branch point S3 where a third branch line is branched is configured to become greater than the wiring lengths TL0 and TL1.

Provided is an acrylic flame retardant adhesive composition, including: (A) 100 parts by mass of an acrylic polymer containing a carboxyl group, with a glass transition temperature of 5 to 30° C., (B) 1 to 20 parts by mass of a resol-type phenol resin, (C) 1 to 20 parts by mass of an epoxy resin, (D) 0.1 to 5 parts by mass of a curing accelerator, (E) a bromine-based flame retardant, in sufficient quantity to produce a bromine content within the entire composition, excluding the component (F), of 15 to 40% by mass, and (F) 10 to 100 parts by mass of an inorganic filler. Also provided are an acrylic adhesive sheet that contains an adhesive layer including this composition and a method of bonding two substrates using this acrylic adhesive sheet. The acrylic adhesive sheet exhibits excellent adhesiveness, heat resistance, workability, handling properties and flame retardancy, and the acrylic adhesive composition is useful in the production of such an adhesive sheet.

A battery monitoring system for monitoring a state of a battery assembly that includes a connection assembly for electrically coupling a controller to the battery assembly. The connection assembly includes a circuit board having an edge extending from a top surface to a bottom surface. The connection assembly also includes a plurality of terminals each having a first end electrically coupled to the circuit board and a second end electrically coupled to the battery assembly with the second end extending beyond the edge of the circuit board with the plurality of terminals each being resiliently biased against the battery assembly for accommodating relative movement between the battery assembly and said circuit board.

A process for fabricating a circuit board with an embedded passive component is provided. First, an electrode-patterned layer having electrodes is formed on a surface of a conductive layer. Then, a passive component material is filled in the intervals between the electrodes. Then, the conductive layer and the electrode-patterned layer are laminated to a dielectric layer, wherein the electrode-patterned layer is embedded in the dielectric layer. Next, the conductive layer is patterned to form a circuit layer.

A printed circuit board structure includes a signal reference layer exposed at the surface of the printed circuit board.