Abstract:
A flexible printed circuit board (FPCB) assembly includes a FPCB, a dielectric layer, a stiffener, and a conductive adhesive layer. The FPCB includes a surface and a conductive layer positioned on the surface of the FPCB. The conductive layer includes a circuit portion and a grounding portion connected to the circuit portion. The circuit portion is entirely covered by the dielectric layer and the grounding portion is exposed outside the dielectric layer. The conductive adhesive is positioned on the stiffener and includes a first adhering portion and a second adhering portion. A thickness of the second adhering portion is greater than the first adhering portion. A thickness difference between the second adhering portion and the first adhering portion is substantially equal to a thickness the dielectric layer. The first adhering portion is adhered to the dielectric layer and the second adhering portion is adhered to the grounding portion.
Abstract:
Disclosed is a board reinforcing structure for reinforcing a circuit board in which an electronic component is mounted on a first surface, the electronic component having an electrode arranged in a rectangular-shaped region on the first surface. The board reinforcing structure includes a reinforcing member bonded to positions corresponding to corner parts of four corners of the rectangular-shaped region on a second surface provided on a side opposite to the first surface of the circuit board. In the board reinforcing structure, corresponding one of notches is formed in the reinforcing member at a position corresponding to one of the corner parts of the four corners of the rectangular-shaped region, and at least two apexes of the reinforcing member directed to an outside are formed to shape a contour thereof with the one of the notches.
Abstract:
A flexible circuit board for being inserted into an in-vivo imaging device is provided. The flexible circuit board may include a plurality of flexible installation units connected to one another through flexible connection units. The flexible installation units may be capable of having electrical components disposed thereon at a size suitable for being included in an in-vivo imaging device which may be inserted into a body lumen, e.g., a capsule endoscope. An in-vivo imaging device which may enclose such a full-flexible circuit board is also provided.
Abstract:
A parallel optical transceiver module is provided that uses a folded flex circuit arrangement that reduces the footprint of the transceiver module while also providing the module with improved heat dissipation characteristics. In addition, the manner in which components are mounted on the flex circuit facilitates assembly of the module, reducing the overall cost of the module while improving manufacturing yield.
Abstract:
A plurality of linear conductors arranged in parallel with each other are covered from the upper and lower sides thereof by first and second insulator layers. On the upper side of the first insulator layer, a first adjustment material layer is formed with forming a predetermined gap relative to an end of the flat cable. And, at this gap, a reinforcement plate is provided. A shield member is provided for covering the upper side of the reinforcement plate and a portion of the upper side of the first adjustment material layer. From the upper side of the shield member to the upper side of the first adjustment material layer, a first shield layer is provided in such a manner to expose the upper side of the portion of the shield member where the reinforcement plate is present. A second insulator layer is configured to expose the conductors at the end of the flat cable. The shield member includes an impedance adjusting arrangement.
Abstract:
According to one embodiment, an electronic apparatus includes a housing, a connector, and a component connected to the connector. The component includes a first and third electrically conductive portion on a first surface, a second electrically conductive portion on a second surface, and a first and second cover portions. The second electrically conductive portion is connected to the first electrically conductive portion. The third electrically conductive portion is kept in contact with a terminal of the connector, and connected to the second electrically conductive portion. The first and second cover portions cover at least a part of the first and second electrically conductive portion.
Abstract:
In a connector assembly 1, male and female terminals 13 and 23 are positioned by inserting guide protrusions 15 into hole portions 25. Each of the guide protrusions 15 includes: a positioning portion 15a positioning male terminals 13 and female terminals 23; and a temporary positioning portion 15b which is smaller in diameter than the positioning portion 15a and is provided on the positioning portion 15a. The temporary positioning portion 15b is inserted through the hole portions 25 for temporary positioning of the male and female connectors 10 and 20 before the positioning portion 15a is inserted through the hole portions 25.
Abstract:
According to one embodiment, an electronic apparatus includes a housing, a circuit board, a component, and a reinforcing portion. The circuit board is in the housing and includes a first surface and a second surface opposite to the first surface. The component is on the first surface of the circuit board and includes a corner. The reinforcing portion is on the second surface of the circuit board and corresponds to the corner of the component.
Abstract:
Provides are a light emitting apparatus and a light unit having the same. The light emitting apparatus comprises a light emitting device comprising a light emitting element and a plurality of external leads, and a plurality of electrode pads under the light emitting device.
Abstract:
A plurality of wiring traces are formed on a base insulating layer, and a metal layer is formed on the opposite surface of the base insulating layer. Two adjacent wiring traces constitute a transmission line pair. The width of the wiring trace is set to not more than 250 μm, and the distance between the adjacent wiring traces is set to not less than 8 μm. The thickness of the base insulating layer is selected to cause differential impedance of the transmission line pair to be not less than 10 Ω and not more than 50 Ω.