Abstract: A flexible electronic assembly includes a flexible current-carrying device, an electrically insulating flexible substrate, and an electronic device embedded in the substrate. The electronic device is mounted face-down on the current-carrying device such that a contact side or component side of the electronic device faces the current-carrying device and is positioned at an interface between the current-carrying device and the substrate. The current-carrying device, substrate, and electronic device are co-planar at the interface. This configuration enables the flexible electronic assembly to have an ultra-thin thickness, for example on the order of micrometers.

Abstract: An electronic component package and a method of manufacturing the same are provided. The electronic component package includes a frame having a through-hole, an electronic component disposed in the through-hole of the frame, and a redistribution part disposed at one side of the frame and the electronic component. One or more first wiring layers of the frame are electrically connected to the electronic component through the redistribution part.

Abstract: Computer modules with small thicknesses and associated methods of manufacturing are disclosed. In one embodiment, the computer modules can include a module substrate having a module material and an aperture extending at least partially into the module material. The computer modules can also include a microelectronic package carried by the module substrate. The microelectronic package includes a semiconductor die carried by a package substrate. At least a portion of the semiconductor die extends into the substrate material via the aperture.

Abstract: A circuit board module is electrically connectable to a socket by inserting one end part thereof into the socket, and includes a circuit board and a terminal board having a first surface provided with a column of socket-connection pads and mounted on the surface of the circuit board at the one end part. The terminal board includes first, second, and third pad columns provided on a second surface of the terminal board opposite to the first surface. The circuit board includes fourth, fifth, and sixth pad columns respectively provided on the surface of the circuit board opposing the second surface of the terminal board, at positions opposing the first, second, and third pad columns of the terminal board, respectively.

Abstract: Provided is a mother ceramic substrate that, when divided into individual substrates (ceramic substrates), can be divided to cause divided end surfaces to be perpendicular to principal surfaces of the individual substrates, and that can provide ceramic substrates with high form accuracy; an individual ceramic substrate obtained from the mother ceramic substrate; a module component including the ceramic substrate; and a method of manufacturing a mother ceramic substrate. In a mother ceramic substrate that can be divided at a predetermined position and separated into a plurality of individual substrates, a dividing groove that defines a division position is formed in a principal surface on one side, and a protruding thread is formed on a principal surface on another side at a position corresponding to a position of the dividing groove formed in the principal surface on the one side in view in a thickness direction of the mother ceramic substrate.

Abstract: Embodiments relate to systems and methods for securing one or more printed circuit boards to a substrate. The substrate may include retention tabs that form a receiving slot that receives an edge of the printed circuit board. The retention tabs and printed circuit board may have corresponding engaging features designed to retain the printed circuit board within the receiving slot and that, in some embodiments, can permit slight movement of the printed circuit board within the receiving slot to accommodate any thermal expansion of the board during use.

Abstract: A printed circuit board has a printed wiring board and a semiconductor package mounted on the printed wiring board. The printed wiring board has a signal conductor pattern and a resonance portion resonating with a plurality of resonance frequencies. The resonance portion has a plurality of conductor patterns aligned while separated each other to oppose to the ground conductor pattern through an insulating layer. The plurality of conductor patterns are arranged so as to oppose to the ground conductor pattern which is connected to a ground terminal of the semiconductor package. The resonance portion has a connecting conductor connecting the conductor patterns adjacent to each other. The resonance portion has a via conductor connecting the conductor pattern with the signal conductor pattern. The printed circuit board can reduce an exclusive region of the resonance portion interrupting a plurality of harmonic components, and can reduce EMI originating in a digital signal.

Abstract: A method for fabricating a package structure is provided, which includes the steps of: providing a carrier having a recess; disposing an electronic element in the recess of the carrier; forming an insulating layer in the recess to encapsulate the electronic element; forming a circuit structure on the carrier, wherein the circuit structure is electrically connected to the electronic element; forming a plurality of through holes penetrating the carrier; and forming a conductive material in the through holes to form a plurality of conductors, wherein the conductors are electrically connected to the circuit structure. By using the carrier as a substrate body, the present invention avoids warping of the package structure.

Abstract: A ceramic circuit board that includes a ceramic insulator layer, grounding pattern conductors, connection lands disposed on a first surface of the ceramic circuit board, and grounding electrodes disposed on a second surface of the ceramic circuit board and connected to the grounding pattern conductors. Each of the grounding pattern conductors contains a metal and an oxide and includes a pattern main portion disposed inside the ceramic circuit board and an extended portion in which a first end thereof is connected to the pattern main portion and a second end thereof is exposed at a side surface of the ceramic circuit board. The metal content of the extended portion is lower than the metal content of the pattern main portion.

Abstract: A bridge section 12 is disposed in an area where mounting sections 11 are opposed to each other such that it is displaced toward a predetermined side. Accordingly, even if the line width of the bridge section 12 is formed larger than that in the related art, the self-alignment phenomenon can occur appropriately in a reflow process. It is thus possible to provide a resin-sealed module having high resin-charging properties and including a circuit substrate on which the bridge section 12 is not broken even if the size of a common land electrode 10 is reduced in accordance with a smaller size of a circuit component 5 and on which a sufficient gap between plural circuit components 5 mounted on the circuit substrate is reliably secured.

Abstract: A die stack having a second die is stacked vertically on top of a first die. A first plurality of test pads is located along a first edge of the first die. A second plurality of test pads is located along a second edge of the first die. The first edge of the first die is parallel to the second edge of the first die. A third plurality of test pads is located along a first edge of the second die. A fourth plurality of test pads is located along a second edge of the second die. The first edge of the second die is parallel to the second edge of the second die. The first edge of the first die and the second edge of the first die are perpendicular to the first edge of the second die and the second edge of the second die.

Abstract: In a general aspect, a display device may include a flexible display having a substantially flat central portion and an end portion, a printed circuit film disposed on the end portion of the display, a panel member attached to the printed circuit film, the panel member being bent around a bend axis to form an edge of the display, and a support structure disposed inside of formed edge of the panel member, the support structure being non-parallel to the flat central portion of the display. The panel member may conform to a shape of the support structure.

Abstract: A ceramic circuit board includes an insulating substrate composed of stacked insulating layers of an alumina-based sintered body, internal leads containing Cu embedded in the insulating substrate, and one or a plurality of metal layers containing Cu embedded in the insulating substrate, at least one of the metal layers being located nearer than the internal leads to the surface of the insulating substrate in the stacking direction, wherein at least part of the metal layer overlaps the internal leads in plan view.

Abstract: A printed circuit board structure that includes at least one insulation layer, at least one conductor layer, and at least one embedded component having a contact pad that has an outer barrier layer, in which structure at least two conductor paths/conductor layers are connected to at least two connections using vias, and each via runs from a conductor path/conductor layer directly to the barrier contact layer of the corresponding connection of the component.

Abstract: A sealant and a preparation method thereof, a display panel motherboard and a manufacturing method thereof are disclosed. The sealant includes a main adhesive material and a water swellable material dispersed and doped in the main adhesive material. The sealant and the preparation method thereof, the display panel motherboard and the manufacturing method thereof are capable of solving a problem of a notch formed in a sealant where a etchant flows into the display panel unit when the display panel mother board is subjected to a thinning treatment.

Abstract: An electronic device may include a first member that forms at least a part of an exterior of the electronic device and includes an opening; a second member that is disposed inside the electronic device; at least one electronic component that is disposed between the first member and the second member not to overlap with the opening of the first member; and a button device disposed inside the electronic device. The button device may include a button that is inserted into the opening of the first button and a dome switch that is disposed at a position where the dome switch is pressed by the button.

Abstract: Provided is a foldable display device. The foldable display device includes a flexible substrate which includes a display area, a bezel area enclosing the display area, and a plurality of bending areas extending from one side of the bezel area; and a display unit disposed in the display area, in which the plurality of bending areas is separated from each other. Therefore, even though the foldable display device is folded, the stress concentrated due to the bending and/or folding overlapping in the bending area may be reduced.

Abstract: Provided is an electro-optical panel including a first area in which a circuit is formed and a first terminal area and a second terminal area that are arranged side-by-side in a Y direction when viewed from the first area. The first terminal area and the second terminal area are each provided with a terminal group including a plurality of terminals arranged in an X direction different from the Y direction, and at least one of wires from the first terminal area to the first area and from the second terminal area to the first area extends from between the first terminal area and the second terminal area and reaches the first area through an area outside of the first terminal area when viewed from a central axis of the electro-optical panel extending in the Y direction.

Abstract: A device comprising a single-sided printed circuit board (PCB) having a non-metallized hole, and a connection area (CA) close to the non-metallized hole on a metallized side of the single-sided printed circuit board. The present invention provides a conducting bridge (CP) from the connection area (CA) and at least partially covering the non-metallized hole, for allowing the connection area (CA) to be contacted, e.g. by a probe (P), from a non-metallized side of the single-sided printed circuit board (PCB) through the non-metallized hole.

Abstract: A mounting structure includes a first substrate on which an elastic core section is provided, a conductive film that is provided over the first substrate from an upper part of the core section, and a second substrate on which a wiring portion connected to the conductive film on the core section is provided, in which the conductive film has a notch that partially exposes an end part of a surface of the core section which is in contact with the first substrate.