Abstract:
A method for making an electrical circuit comprises the steps of: forming a rigid printed circuit board having a plurality of electrical contacts on at least one surface; forming a multilayer flexible circuit board having a plurality of electrical components on at least one surface, and further having a bifurcated area along one edge; forming electrode pads on the inner surfaces of the bifurcated area of the flexible circuit board that are alignable respectively with the electrical contacts on the rigid circuit board when the bifurcated area is spread apart by about 180°; spreading the bifurcated area apart and aligning the electrode pads respectively with the electrical contacts; and forming an electrical connection between the electrode pads and the electrical contacts.
Abstract:
[Problem] To allow an efficient sheet layout of a flexible printed circuit board having a plurality of cable sections extending in different directions and to improve a yield.[Solution] A method of manufacturing a flexible printed circuit board that includes a component mounting section (1) having lands (1a), a plurality of flexible cable sections (2) having wirings and extending in different directions from the component mounting section (1), and a connection section (3) having terminals (3a) connected with the land (1a) through the wiring, the method including manufacturing partial FPCs in a sheet in a unit of a partial FPC that includes a partial component mounting section (1A) that is a part of the component mounting section, a cable section (2) extending from the partial component mounting section (1A), and a connection section (3) disposed in the cable section (2), cutting out the partial FPC (4A) from the sheet, performing an alignment using alignment targets (29, 30) of the partial FPC (4A) and a support plate (5) so that the partial component mounting sections (1A) of respective partial FPCs (4A) configure the component mounting section (1), and fixing the partial FPCs (4A) onto the support plate.
Abstract:
A flexible midplane comprises: a printed circuit board including: a middle section and at least one side section; and a flexible region disposed between the middle section and each side section; wherein each flexible region permits the corresponding side section to be bent in relation to the middle section.
Abstract:
A wiring material includes conductors, each of which has a cross section having a thickness and a width not less than the thickness, a trunk portion in which the conductors are spaced parallel in a direction of the width thereof, a branch portion in which each conductor is bent and branched from the trunk portion in the direction of the width or in a direction that intersects the direction of the width, and a covering member for covering the trunk portion and the branch portion to expose both ends of the conductors.
Abstract:
A method for making an electrical circuit comprises the steps of: forming a rigid printed circuit board having a plurality of electrical contacts on at least one surface; forming a multilayer flexible circuit board having a plurality of electrical components on at least one surface, and further having a bifurcated area along one edge; forming electrode pads on the inner surfaces of the bifurcated area of the flexible circuit board that are alignable respectively with the electrical contacts on the rigid circuit board when the bifurcated area is spread apart by about 180°; spreading the bifurcated area apart and aligning the electrode pads respectively with the electrical contacts; and forming an electrical connection between the electrode pads and the electrical contacts.
Abstract:
A molded interconnect device can carry a Hall sensor for transducing a position of a rotor of the implantable blood pump. The molded interconnect device includes one or more integrated electronic circuit traces configured to electrically connect the hall sensor with a printed circuit board of the implantable blood pump, and the molded interconnect device is configured to be mounted to the printed circuit board.
Abstract:
Disclosed herein are a touch panel and a method for manufacturing the same. The touch panel includes a transparent substrate; electrode patterns formed on the transparent substrate; electrode wirings formed on the transparent substrate and electrically connected with the electrode patterns; a flexible printed circuit board (FPCB) having connection parts electrically connected with the electrode wirings while being connected with a connection region of the transparent substrate on which distal ends of the electrode wirings are disposed; and an adhesive layer formed on the transparent substrate so as to cover the connection parts.
Abstract:
A plurality of protruding substrate portions (12) is extended from positions placed at an interval from each other along a peripheral edge of a wiring substrate (10). Each of the protruding substrate portions (12) is provided with wiring terminals (15), (16) electrically connected to each of a plurality of electrode terminals provided to an electrical instrument substrate. A cut-out part (18) is formed in a peripheral edge (13a) between the protruding substrate portions (12) in the wiring substrate (10).
Abstract:
A straight middle LED module having a certain length and positioned at a middle portion; side LED modules which are provided at both sides of the middle LED module at a regular interval along a longitudinal direction; a middle connection portion at which the side LED modules and the middle LED module are connected and integrally formed in order for the side LED modules to be bent; and a horizontal connection portion to which a lower side of the middle LED module is connected at a regular interval along a horizontal direction, and the middle connection portion has grooves alternately formed at both sides and has a width narrower than the width of the side LED module.
Abstract:
According to one embodiment, a flexible wiring module includes a flexible wiring board which comprises electric wiring lines and an insulating layer that covers the surfaces of the electric wiring lines and which has a pair of end areas separate from each other in a wiring length direction and a wiring area sandwiched between the end areas. At least one through slit is made in the wiring area so as to connect the end areas, thereby dividing the wiring area into wiring fins. A stacked part where at least a part of the wiring fins are stacked in a thickness direction of the wiring fins is bundled together with a conductive band to form a wire-bundle area. In the wire-bundle area, the electric wiring line of at least one of the wiring fins is exposed and direct contact with the band.