Abstract:
A method of producing electronic components each including a substrate-type terminal and a device connected to the substrate-type terminal is performed such that the substrate-type terminal includes a substrate body including a rectangular or substantially rectangular first principal surface extending in first and second directions perpendicular or substantially perpendicular to each other. The device is disposed on the first principal surface. The method includes supporting a substrate that is to become an assembly in which the plurality of substrate-type terminals are arranged in a matrix using a first support member, cutting the substrate supported by the first support member into the plurality of substrate-type terminals, and mounting the device on the first principal surface of the substrate body of each of the plurality of substrate-type terminals obtained by cutting.
Abstract:
An electrical connector comprises a printed circuit board module including a printed circuit board (PCB) and a plurality of electrical elements disposed on the PCB, the PCB includes a mating end for mating with a mating connector and a plurality of conductive paths electrically connecting with the electrical elements; wherein the PCB includes a fracture surface, and the plurality of conductive paths are exposed to the fracture surface.
Abstract:
A breakaway RFID tag is configured such that it comprises part of a Printed Circuit Board Assembly (PCB). Thus, the breakaway RFID tag can be used to track the PCB as it migrates through a manufacturing process. In one embodiment, the RFID tag can be assembled first and then used to track the PCB as it is populated with components and installed into larger assemblies and ultimately into the end device. Once the PCB is installed into a larger assembly or the end device, the breakaway RFID tag is configured such that it can be broken off and attached to the outside of the larger assembly or end device.
Abstract:
A method of manufacturing a combined circuit board includes the following steps. First, through portions (TPs) arranged in a predetermined format are formed in a rigid substrate (RS) such that the RS is divided into a predetermined removed region (PRR1) and a predetermined reserved region (PRR2) according to the arrangement of the TPs. Next, a conductive bonding layer (CBL) and a flexible circuit board (FCB) are respectively laminated on two opposite sides of the RS and part of a dielectric bonding layer of the CBL fills the TPs. Next, the RS, the FCB and the CBL are bent according to the TPs such that the PRR2 is bent at the TPs relative to the PRR1. Finally, part of the RS located at the PRR1 and part of the CBL corresponding to the PRR1 are removed to form an indentation to expose part of the FCB.
Abstract:
A curved display device and method for manufacturing the same is provided. The method for manufacturing a curved display device may include providing a display panel, a plurality of signal transfer elements, and a plurality of printed circuit boards, connecting one end of each of the signal transfer elements to the display panel and connecting the other end of each of the signal transfer elements to one of the printed circuit boards, on which one or more division guide portions are formed, dividing each of the printed circuit board into a plurality of sub printed circuit boards through cutting of the division guide portions; and bending the display panel connected to the sub printed circuit boards so that the display panel has a curvature.
Abstract:
A wiring substrate includes a substrate main body which is formed of a ceramic laminate and has a rectangular shape in plan view, and which has a front surface and a back surface and has four side surfaces, each being located between the front surface and the back surface, and having a groove surface located on a side toward the front surface and a fracture surface located on a side toward the back surface; and a metalized layer which is formed on the front surface of the substrate main body so as to extend along the four side surfaces, and which has a rectangular frame shape in plan view, wherein a horizontal surface of the ceramic laminate of the substrate main body is exposed between the metalized layer and the groove surface of each side surface of the substrate main body.
Abstract:
A compact rigid-flexible board includes two flexible PCBs, two rigid substrates, a third trace layer and a fourth trace layer. The first flexible PCB includes a first depressing portion, a first exposed portion and a third depressing portion, and a separated second exposed portion. The second flexible PCB includes fourth and fifth depressing portions, and a second exposed portion. The first rigid substrate includes sixth, seventh, and eighth depressing portions. The second rigid substrate includes ninth and tenth depressing portions. The third trace layer, the sixth, first, fourth, and ninth depressing portions and the fourth trace layer are stacked in sequence. The third trace layer, the seven, second, fifth, and tenth depressing portions, and the fourth trace layer are stacked in sequence. The third trace layer and the eighth and third depressing portions are stacked in sequence.
Abstract:
Substrate components for packaging IC chips and electronic device packages are disclosed. A substrate component for packaging IC chips comprises: a glass core base with at least one conductive through via connecting a combination of metallization and dielectric structures on both an upper surface and a lower surface of the glass core base; and, tapered edges created at a peripheral region of the glass core base; wherein dielectric layers are disposed over the tapered edges at the peripheral region of the glass core base. In accordance with an embodiment of the invention, the dielectric layers have a substantial planar upper surface, a lower surface conformably interfaced with the tapered edges at peripheral region of the glass core base, and a steep cutting face with the tapered edges of the glass core base. Alternatively, the tapered edges at peripheral region of the glass core base are not covered by the dielectric layers, and an encapsulated material sealing the tapered edges at peripheral region of the glass core base.
Abstract:
A flexible sheet of light-emitting diode (LED) light emitters includes a support substrate having a thermally conductive material. The flexible sheet of LED light emitters also has an LED emitter sheet overlying the support substrate, and the LED emitter sheet including a plurality of LED light emitters. The flexible sheet of LED light emitters also has a flexible circuit sheet overlying the LED emitter sheet, and a phosphor sheet overlying the flexible circuit sheet. The phosphor sheet includes a wave-length converting material. The flexible sheet of LED light emitters also has a lens sheet overlying the phosphor sheet. The lens sheet includes a plurality of lenses.
Abstract:
Disclosed is a ceramic substrate including silicon in which the concentration of a silicon oxide and a silicon composite oxide in the surface thereof is less than or equal to 2.7 Atom %.