A curved electronic device (10c) can be formed by a stack with a curved substrate (13) comprising a thermoplastic material (Ms), and at least one electronic component (14) connected to an electronic circuit (15) disposed on the substrate (13). A component area (11) of the substrate surface (11.12) around the electronic component (14) comprises a first material (M1) providing relatively low absorption (A1) to light (L) and a surrounding area (12) of the substrate (13) outside the component area (11), comprises a second material (M2) providing relatively high absorption (A2) of the light (L). E.g. as a result of differential heating and thermoforming a first thickness (T1) of the substrate (13) in the component area (11) may be relatively high compared to a second thickness (T2) of the substrate (13) in the surrounding area (12).

An inductor may be fabricated comprising a magnetic material layer and an electrically conductive via or trace extending through the magnetic material layer, wherein the magnetic material layer comprises dielectric magnetic filler particles within a carrier material. Further embodiments may include incorporating the inductor of the present description into an electronic substrate and may further include an integrated circuit device attached to the electronic substrate and the electronic substrate may further be attached to a board, such as a motherboard.

Provided is an example of a technology capable of accurately controlling impedance.

Provided is a substrate including a first through hole that penetrates a substrate from a first face to a second face of the substrate, and is electrically connected to a transmission line through which a signal is transmitted, a second through hole that is provided adjacent to the first through hole in plan view of the substrate, penetrates the substrate from the first face to the second face, and is electrically connected to a ground, and an adjustment unit that adjusts a distance between the first through hole and the second through hole in plan view of the substrate to adjust an impedance of a connection end of the first through hole with the transmission line.

A process of manufacturing a multiple-layer printed circuit board includes selectively applying a dielectric resin to a region of a circuitized core layer. The process also includes partially curing the dielectric resin prior to performing a lamination cycle to form the multiple-layer printed circuit board that includes the circuitized core layer.

A semiconductor device includes a circuit board including an insulating layer having opposite front and rear surfaces, an electrode pad disposed on the front surface, a housing having an installation area for the circuit board, and a bonding material embedded in a recess within either a first area located at the rear surface of the insulating layer directly below an area of the circuit board in which the electrode pad is disposed, or at a second area located within the installation area of the housing and corresponding to the first area in a plan view.

A flexible display panel and a display device are provided. The flexible display panel includes a bending region and a display region. The bending region includes a plurality of metal wirings; each metal wiring is in long strip shape and includes a metal strip; a plurality of openings are defined through the metal strip. In the width direction of the metal strip, a ratio of a minimum distance from a point of an edge of the one of the openings to a neighboring side of the metal strip to a minimum width of the metal strip ranges from 0.1 to 0.7. A wiring structure of the bending region can prevent a stress concentration of the bending region, enhance a strength during a bending process, and avoid a breakage of the metal wiring.

Certain aspects of the present disclosure generally relate to an electronic device with a circuit board having one or more super-capacitors implemented therein using the layers of the circuit board. An example electronic device generally includes a circuit board having a capacitive element implemented therein, wherein the capacitive element comprises a first conductive layer, a second conductive layer disposed below the first conductive layer, and a solid dielectric material disposed between the first and second conductive layers, wherein the dielectric material has a high dielectric constant greater than 10,000 (1E4); and an integrated circuit coupled to the circuit board.

An electronic circuit including a substrate having a first dielectric characteristic. The substrate can include a first side and a second side. An intermediary material can be disposed within the substrate. For instance, the intermediary material can be located between the first side and the second side. The intermediary material can include a second dielectric characteristic, where the second dielectric characteristic is different than the first dielectric characteristic. A first conductive layer can be disposed on the first side, and a second conductive layer can be disposed on the second side. A conductive path can be electrically coupled between the first conductive layer and the second conductive layer. The conductive path can be in contact with at least a portion of the intermediary material.

A high-frequency device includes a metal base, a dielectric substrate mounted on the metal base, an insulator layer provided on the metal base, covering the dielectric substrate, and having a dielectric constant smaller than that of the dielectric substrate, and a first line that overlaps the dielectric substrate as seen from a thickness direction of the insulator layer and is provided on an upper surface of the insulator layer to form a first microstrip line.

A resin substrate includes an insulating base material including opposing first and second main surfaces, at least one of which is parallel or substantially parallel to each of an X-axis direction and a Y-axis direction. The insulating base material is divided into first and second sections arranged in the X-axis direction. The first section includes, when evenly divided into three in a Z-axis direction, a first region closest to the first main surface, a second region closest to the second main surface, and a third region between the first region and the second region. A degree of resin molecular orientation in the first region in the Y-axis direction is greater than a degree of resin molecular orientation in the second section of the insulating base material in the Y-axis direction.