Abstract:
An LED panel includes a support having a first side, a second side opposite the first side, and a window that extends from the first side to the second side. An LED is affixed to the first side. A diverter affixed to the second side. The diverter includes an angled portion, wherein the angled portion extends over a window portion that is less than all of the window.
Abstract:
A circuit board that is to be mounted in a connector socket includes a plurality of electrical connectors located along a side edge of the circuit board. Retention bosses are formed on first and second opposite sides of the circuit board, each of the retention bosses protruding from a surface of the circuit board and extending parallel to and adjacent to the first edge of the circuit board. When the first edge of the circuit board is inserted into a slot of a connector socket, contact surfaces of the first and second retention bosses contact top surfaces of the connector socket to help immobilize the circuit board with respect to the connector socket. Adhesive layers on the contact surfaces of the first and second retention bosses may adhere to the top surfaces of the connector socket to help hold the circuit board immobile with respect to the connector socket.
Abstract:
An electric circuit configuration having an MID circuit carrier and a connecting interface, the connecting interface being situated on a surface of the MID circuit carrier. The electric circuit configuration further includes at least one electrical contact pair having at least one connecting interface contact element and at least one MID contact element that is provided on the surface and is situated on the connecting interface contact element. The exemplary embodiments and/or exemplary methods of the present invention further relates to a contact element group having at least one electrical contact element for the electrical contacting of an MID circuit carrier, which is developed on a surface of an MID circuit carrier, is electrically connected to it, and extends away from the surface. The at least one contact element is connected to a line element of the MID circuit carrier.
Abstract:
A multi-layer micro-wire structure includes first and second substrates having first and second layers extending to first and second layer edges, respectively. The first layer includes first micro-wire electrodes and first connection pads. Each first micro-wire electrode includes one or more electrically connected first micro-wires and each first connection pad electrically connects to a corresponding first micro-wire electrode. The second layer includes second micro-wire electrodes and second connection pads. Each second micro-wire electrode includes one or more electrically connected second micro-wires, and each second connection pad electrically connects to a corresponding second micro-wire electrode. The second layer is located between the first substrate and the second substrate and the second layer edge extends at least partly beyond the first layer edge so that one or more of the second connection pads is located between at least a portion of the first layer edge and the second layer edge.
Abstract:
An LED light device and a circuit preparation method thereof are provided. The LED light device includes a base, an LED light unit, and a lamp shade. The LED light-emitting unit and the lamp shade are arranged on the base. The lamp shade covers the LED light-emitting unit inside. The circuit preparation method includes following steps of: providing a base which is a physical entity having a three-dimensional structure on the surface thereof; coating a circuit layer on the base surface through a programmable coating equipment, manual coating or the combined mode, wherein the circuit layer is a liquid or powder coating containing metal materials, and the thickness of the circuit layer is 20 μm or more; baking the base coated with the circuit layer at the high temperature of 100-1,000° C. until the circuit layer is dried; and obtaining a base having a three-dimensional circuit after cooling.
Abstract:
Various embodiments of an interposer for mounting a semiconductor die, as well as methods for forming the interposer, are disclosed. The interposer includes flexible solder pad elements that are formed from a core material of the interposer, such that the interposer may absorb thermally induced stresses and conform to warped or uneven surfaces. Embodiments of electronic device packages including a semiconductor die mounted to and electrically connected to the interposer, as well as methods for forming the electronic device packages, are also disclosed. In one electronic device package, the semiconductor die is electrically connected to the interposer with wire bonds attached to a routing layer of the interposer. In another electronic device package, the semiconductor die is electrically connected to the interposer by bonding the semiconductor die to the flexible solder pad elements of the interposer in a flip-chip configuration. A computer system incorporating an electronic device package with an interposer according to the present invention is also disclosed.
Abstract:
A tape package includes a body portion including a flexible material, a driving circuit disposed on the body portion, a first sub-connection portion extending from the body portion in a first direction, a first main-connection portion extending from the first sub-connection portion in the first direction, a first lead line including a first end electrically connected to the driving circuit and a second end extending in the first direction, the first end being opposite to the second end and a protrusion extending from the first sub-connection portion in a third direction perpendicular to the first direction on a same plane with the first sub-connection portion. Accordingly, a crack of the lead line may be reduced or effectively prevented.
Abstract:
A method in accordance with an embodiment comprises forming a feature on a substrate, disposing a first conductive pattern on the substrate and the feature, disposing a permeability material within the feature, disposing a substrate material on the substrate and the feature to facilitate substantial enclosure of the permeability material between the substrate and the substrate material, and disposing a second conductive pattern on the substrate material. The first conductive pattern and the second conductive pattern define at least one electrical circuit operable for coupling to a current source so as to cooperate to be capable of facilitating a magnetic field about the permeability material.
Abstract:
Provided is a mounting structure capable of maintaining highly accurate connection reliability even when the temperature of the environment in which the mounting structure is used is high. Mounting structure (10) includes electronic component (11), metal (12), wiring substrate (13), and a preventing structure. Electronic component (11) includes first electrode (14). The melting point of metal (12) is 130° C. or less. Wiring substrate (13) includes second electrode (15) electrically connected to first electrode (14) via metal (12). The preventing structure prevents flowing-out of metal (12) in a melted state from a region where first electrode (14) and second electrode (15) are formed. Further, preventing structure (14) is formed in at least one member selected from electronic component (11) and wiring substrate (12).
Abstract:
The present invention relates to electronic components assembly for electrically connecting electronic components to each other, wherein a wiring formed on a surface of a first electronic component and a wiring formed on a surface of a second electronic component face each other, and are bonded to each other with an electric conductor interposed therebetween, so as to electrically connect the first electronic component and the second electronic component. The electric conductor is a resin composition containing solder or conductive filler.