Abstract:
An electrical connection structure allowing reduction in height and easy disassembly, wherein a first connecting member comprises a flexible substrate comprising a flexible insulating film, at least one conductive pad formed on at least one side thereof, a conductive circuit pattern extending from the rim of the pad, a through-hole formed through the thickness thereof at a planar position within the pad, and a small aperture formed at a planar position within the pad and communicating with the through-hole, and a second connecting member comprises a conductive projection formed at least one side thereof and electrically connected with a conductive circuit pattern formed inside or on the second connecting member, where the electrical connection is formed in the manner such that the conductive projection of the second connecting member is inserted in the through-hole of the first connecting member, through the small aperture in the pad, bending the pad and the portion of the insulating film under the pad, along the direction of insertion of the conductive projection, so that the pad is pressed onto the conductive projection due to elastic force of the pad and the insulating film bent.
Abstract:
According to the present invention, there is provided a process for manufacturing a circuit board wherein a first substrate having a conductor post and a second substrate having a conductor pad for receiving the conductor post are laminated through an interlayer adhesive, and the conductor post and the conductor pad are electrically connected, comprising, as a first step, bonding the conductor pad with the conductor post by thermocompression under predetermined first conditions while the first and the second substrates are arranged such that the conductor pad faces the conductor post through the interlayer adhesive; thermocompressing the first substrate and the second substrate under predetermined second conditions while the conductor pad is bonded with the conductor post; and thermocompressing the first substrate and the second substrate under predetermined third conditions while the conductor pad is bonded with the conductor post, wherein the first, the second and the third conditions are different from each other.
Abstract:
A flexible printed circuit board (FPC) is disclosed which can eliminate the need for forming through holes and ensure the strength required for mounting components. The FPC has a metal foil layer formed only on one side of an insulating layer via an adhesive layer. The FPC is configured such that the insulating layer and the adhesive layer are partially removed, and the surface of the metal foil layer on the side from which the insulating layer and the adhesive layer have been removed is flattened. In a region from which the insulating layer and the adhesive layer have been removed, an overcoat layer for reinforcing the metal foil layer is provided along the metal foil layer on a surface opposite to the flattened surface. A drive IC is mounted on a first metal foil face of the metal foil layer and on a second metal foil face which is the flattened surface of the metal foil layer, and is provided with electrical conduction by the metal foil layer. To form the FPC, the insulating layer and the metal foil layer can be directly affixed to each other without using the adhesive layer.
Abstract:
This publication discloses a method for manufacturing an electronic module, in which manufacture commences from an insulating-material sheet (1). At least one recess (2) is made in the sheet (1) and extends through the insulating-material layer (1) as far as the conductive layer on the opposite surface (1a). A component (6) is set in the recess, with its contact surface towards the conductive layer and the component (6) is attached to the conductive layer. After this, a conductive pattern (14) is formed from the conductive pattern closing the recess, which is electrically connected from at least some of the contact areas or contact protrusions of the component (6) set in the recess.
Abstract:
Methods of manufacturing optical transceiver modules using lead frame connectors that connect optical sub-assemblies to printed circuit boards are disclosed. The lead frame connector includes an electrically insulating case having a first part separated from a second part, and a plurality of conductors that are electrically isolated one from another by the electrically insulating case. Each of the plurality of conductors can form an electrical contact restrained in a fixed position with respect to the first part and a contact point extending from the second part. The electrical contact is aligned with and soldered to the leads that protrude from the back end of an optical sub-assembly. The contact points can then be connected to electrical pads on a PCB.
Abstract:
A wiring pattern having a plurality of terminal lands and leads independently respectively connected therewith is formed on one face of an insulator of a flexible wiring substrate. The insulator is provided with through-holes whereby the terminal lands are exposed on the other side. The terminal lands are electrically connected and fixed on the other face of the insulator by joining with the head terminals of the inkjet head with conductive adhesive, through the through-holes. Isolation between the leads and terminal lands arranged on the one side thereof from the conductive adhesive is provided by the insulator.
Abstract:
An electronic device and method of fabrication are provided. The electronic device comprises a substrate, a patterned conductive layer serving as an antenna layer formed on the outer surface of the substrate, electrically connected with a printed circuit board (PCB) for sending or receiving a wireless signal, wherein the substrate is placed between the patterned conductive layer and PCB. The patterned conductive layer may be electrically connected to the PCB through a hole in the substrate by a connecting piece. The substrate may be a housing of the electronic device.
Abstract:
The present invention relates to a chip embedded printed circuit board and a manufacturing method thereof. The prevent invention provides the chip embedded printed circuit board including an insulating layer embedding a chip provided with posts at an upper part, vias formed through the insulating layer, upper patterns formed at the upper part of the insulating layer to be connected to the posts and the vias and lower patterns formed at a lower part of the insulating layer to be connected to the vias, and the manufacturing method thereof.
Abstract:
A suspension board with circuit includes a conductive pattern, including a slider arranged on a surface side of the suspension board with circuit and mounted with a magnetic head, the magnetic head being electrically connected with the conductive pattern; and a light emitting device arranged on the back surface side of the suspension board with circuit and electrically connected with the conductive pattern, in which the conductive pattern includes a first terminal provided on a surface of the suspension board with circuit and electrically connected with the magnetic head; and a second terminal provided on the back surface of the suspension board with circuit and electrically connected with the light emitting device.
Abstract:
In some embodiments, same layer microelectronic circuit patterning using hybrid laser projection patterning (LPP) and semi-additive patterning (SAP) is presented. In this regard, a method is introduced including patterning a first density region of a laminated substrate surface using LPP, patterning a second density region of the laminated substrate surface using SAP, and plating the first and second density regions of the laminated substrate surface, wherein features spanning the first and second density regions are directly coupled. Other embodiments are also disclosed and claimed.