Abstract:
Systems, apparatuses, and/or methods to manufacture and/or implement a sensor film, a composite electrode, and/or a computing device such as a flexible device. The sensor film may include a random network of metal lines and graphene interconnecting the metal lines. The composite electrode may be formed from the sensor film. In addition, the composite electrode may include a first portion including a metal layer in a graphene layer, wherein the metal layer is randomly located in the graphene layer, and a second portion excluding the metal layer and including the graphene layer. The sensor film may be patterned to include any composite electrode configuration, such as an antenna electrode configuration, a touch electrode configuration, and so on. Thus, the flexible device may include a flexible touch screen.
Abstract:
A wired circuit board includes an insulating layer, and a conductive layer including a wire covered with the insulating layer and a terminal continued to the wire to electrically connect the wire to an electronic element. The insulating layer is formed with an insulating opening exposing the terminal, and the terminal is formed in a pattern which is indented in a thickness direction.
Abstract:
A semiconductor module includes a printed circuit board including an integrated circuit chip, connecting terminals at an edge of the printed circuit board, and signal lines respectively connecting electrical connection pads of the integrated circuit chip to the connecting terminals. The connecting terminals are plated using via-holes of the printed circuit board respectively connected to the signal lines.
Abstract:
A flexible device includes a first conductive pattern, a second conductive pattern, and a dielectric layer. The first conductive pattern includes a first sliding contact portion and a first extension portion. The second conductive pattern includes a second sliding contact portion overlapping with the first sliding contact portion and the second conductive pattern includes a second extension portion. The second sliding contact portion is in contact with the first sliding contact portion and is movable on the first sliding contact portion for a sliding motion. The first and second conductive patterns are embedded in the dielectric layer.
Abstract:
[Purpose] To provide a wired circuit board in which it is possible to inhibit a conductive adhesive from leaking to the outside, while inhibiting terminals from being increased in size, and also improve connection reliability.[Solving Means] A suspension board with circuit 3 includes power-source wires 25B, and piezoelectric-side terminals 40 formed continuously to the power-source wires 25B and electrically connected thereunder to piezoelectric elements 5. Each of the piezoelectric-side terminals 40 includes an outer contact portion 51, and an inner contact portion 53 provided around the outer contact portion 51 to protrude below the outer contact portion 51.
Abstract:
A first insulating layer is formed on a front surface of a rectangular circuit board. Conductive patterns having a predetermined shape are formed on a front surface of the first insulating layer. A semiconductor element and a chip element are electrically connected to the conductive patterns by use of solder or conductive paste. The conductive patterns, the semiconductor element and the chip element which are formed on the front surface of the circuit board, are covered with a sealing resin. Pads on the circuit board and leads are connected to each other by use of thin metal wires.
Abstract:
A semiconductor module includes a printed circuit board including an integrated circuit chip, connecting terminals at an edge of the printed circuit board, and signal lines respectively connecting electrical connection pads of the integrated circuit chip to the connecting terminals. The connecting terminals are plated using via-holes of the printed circuit board respectively connected to the signal lines.
Abstract:
An LED device with improved circuit board LED support structure is presented. A top surface of a thermally-conductive substrate of this LED device comprises a thermally-conductive pillar. The pillar is not covered with a dielectric layer and an LED package is arranged directly on the pillar with the LED packages bottom thermally-conductive plate in direct contact with the pillar top surface.
Abstract:
A process for producing a printed wiring board-forming sheet comprising a resin sheet having a through hole in the thickness direction and a metal chip inserted in the through hole. The sheet is produced by placing a resin sheet and conductive metal sheet in this order on a die base having a die hole, performing punching from the conductive metal sheet side to form a punched hole in the conductive metal sheet and to form a punched hole in the resin sheet and inserting the punched conductive metal chip in the through hole of the resin sheet whereby the front and back surfaces of the sheet can be electrically connected to each other. If the conductive metal chip is so inserted that its tip protrudes from the surface of the sheet, and if a large number of such substrates are laminated, electrical connection in the thickness direction can readily be made by virtue of the protruded conductive metal chips and a multi-layer board can be readily produced.
Abstract:
A flexible device includes a first conductive pattern, a second conductive pattern, and a dielectric layer. The first conductive pattern includes a first sliding contact portion and a first extension portion. The second conductive pattern includes a second sliding contact portion overlapping with the first sliding contact portion and the second conductive pattern includes a second extension portion. The second sliding contact portion is in contact with the first sliding contact portion and is movable on the first sliding contact portion for a sliding motion. The first and second conductive patterns are embedded in the dielectric layer.