An electronic device comprising: a substrate having a curved surface, a printed circuit board, and plural flexible wiring substrates, each of two of the plural flexible substrates has a terminal portion that is connected to the curved surface, the printed circuit board has a cutout between the two flexible wiring substrates.

Provided is a speaker and microphone integrated display panel including: a display panel having a display area and a non-display area surrounding the display area; and a simultaneously convertible film type speaker or film type microphone which is mounted to correspond to an air hole in the non-display area, in which the display panel and the film type speaker or the film type microphone are at least partially integrated so as to be drive-connected.

An electrical board-to-board connector including a flexible cable assembly having a low profile or dimensionally reduced configuration. The connector body of a cable assembly may be widened to provide the structural rigidity sufficient to support an array of solder lead connections. Other support elements may be omitted from the cable assembly, which results in a reduced height dimension. The flexible cable assembly may also include a cowling used to retain the cable assembly against a circuit board. The cowling may also be configured to reduce the dimensions or dimensional footprint of the connection.

An exemplary embodiment provides a conductive connecting member, and a display device including the same, that includes a flexible elongated body and terminals formed at opposite ends of the body to be electrically connected to the body, wherein the body may include terminal areas in which the terminals are formed and a central area disposed between the terminal areas, and wherein two or more recess portions may be formed in edges of the body within the central area of the body.

A driver mounting apparatus 40 includes a driver mount-side heat supply support member 42, a substrate support member 41, a driver-side heat supply support member 43, a first moving portion 44, and a second moving portion 45. The driver mount-side heat supply support member 42 supports a driver mount portion GSd and supplies heat to the driver mount portion GSd. The substrate support member supports a substrate main portion GSm. The driver-side heat supply support member 43 supports and sandwich a driver 21 with the driver mount-side heat supply support member 42 and supplies heat to the driver 21. The first moving portion 44 relatively moves the driver mount portion GSd and the driver mount-side heat supply support member 42 in an overlapping direction in which the glass substrate GS and the driver 21 are overlapped. The second moving portion 45 relatively moves the driver 21 and the driver-side heat supply support member 43 in the overlapping direction.

A layout structure of flexible circuit board includes a flexible substrate, a chip and a circuit layer. A chip mounting area and a circuit area are defined on a top surface of the flexible substrate, the circuit area surrounds the chip mounting area. The chip is mounted on the chip mounting area of the top surface and includes a bump. The circuit layer is disposed on the top surface. A connection portion of the circuit layer extends across a first side of the chip mounting area and into the chip mounting area. A transmission portion of the circuit layer is located on the circuit area and electrically connected to the connection portion. A stress release portion of the circuit layer is located between the transmission portion and a second side of the chip mounting area and is a comb-shaped structure.

A mounting device for mounting a multi-segmented flexible printed circuit board includes: a circular stage on which a display substrate provided with a plurality of sub-pads and a multi-segmented flexible printed circuit board attached to a side of the display substrate are configured to be placed; and a pressing unit arranged adjacent to the circular stage and configured to press and attach the multi-segmented flexible printed circuit board to the plurality of sub-pads of the display substrate.

The present disclosure relates to a touch screen, a manufacturing method thereof and a display device. The touch screen comprises: a glass substrate, a touch functional layer on the glass substrate, a white ink frame on the touch functional layer, and a black ink layer partially covering the white ink frame. The black ink layer has an extension portion extending away from the white ink frame along the touch functional layer. The extension portion has a via hole for electrically connecting to the touch functional layer. In this case, by adding a black ink layer on the white ink frame and fabricating a via hole structure in the extension portion of the black ink layer, an electrical connection with the touch functional layer is achieved.

A flexible circuit board includes a base material including a first surface and a second surface opposite the first surface, the base material including a conductor layer, a first insulating film covering the first surface of the base material and formed with a first opening, a first insulating member formed inside the first opening and formed with a connection port to expose the conductor layer, the first insulating member having a thermal expansion coefficient smaller than that of the first insulating film, a second insulating film covering the second surface of the base material and formed with a second opening overlapping at least a portion of the first opening in a plan view, and a second insulating member formed inside the second opening and having a thermal expansion coefficient smaller than that of the first insulating film.

An organic light-emitting display device includes an organic light-emitting element on a substrate, a metal substrate, and an encapsulation unit configured to seal the organic light-emitting element, and a structure in which a driving film is connected so as not to be protruded further than the substrate. A portion of the encapsulation unit is between the metal substrate and the driving film, and the portion of the encapsulation unit is configured to reduce damage to the driving film caused by the metal substrate. Thus, the organic light-emitting display device may realize a narrow bezel and also reduce a driving defect caused by damage to the driving film.