Abstract:
There is provided a communication device that includes a first circuit board which includes a first ground pattern (GND) and a first signal line formed on a substrate, a ground pin electrically coupled with the first GND, where the ground pin protrudes from an end of the substrate, and a signal pin formed in the substrate and electrically coupled with the first signal line, where the signal pin protrudes from the end. The communication device further includes a send circuit board which includes a second GND and a second signal line, wherein when an end of the circuit board is inserted into a space between the ground pin and the signal pin, the first signal line and the second signal line are electrically coupled with each other via the signal pin and the first GND and the second GND are electrically coupled with each other via the ground pin.
Abstract:
A receptacle includes a signal terminal, a ground terminal, and a signal terminal. A second portion of the ground terminal is distanced from a first portion of the signal terminal in an extension direction. A third portion of the signal terminal is distanced from the first portion of the signal terminal in the extension direction.
Abstract:
The present invention relates to a connector, which includes a printed circuit tongue, and one surface of the printed circuit tongue is defined with a plurality of first printed areas and second printed areas which are joined to terminals. Elastic terminal pieces extend from the first printed areas and assembled on the printed circuit tongue, and third printed areas similarly extend from the second printed areas and defined on the printed circuit tongue. Moreover, fourth printed areas are defined on another surface of the printed circuit tongue, and fifth printed areas extend from the fourth printed areas and defined on the printed circuit tongue. Accordingly, the present invention enables achieving a connector that is tough and strong, the manufacturing process of which is simple and fast, and the wire layout is simple.
Abstract:
A magnetic element (100) includes a board unit (2) including a paddle board (21) having a row of first conductive vias (251) and a row of second conductive vias (252) for insertion of terminals (3), a number of embedded magnetic components (22), and a number of SMDs (surface mount devices) (23) mounted on the paddle board by SMT (surface mount technology). Each embedded magnetic component includes a magnetic core (221) embedded in the paddle board, and a number of PCB (printed circuit board) layout traces (222) disposed in the paddle board. Each PCB layout trace includes a first PCB layout trace (222a) encircling around the magnetic core and connecting with the first conductive via, and a second PCB layout trace (222b) encircling around the magnetic core and connecting with the SMD.
Abstract:
A method is for connecting a tab pattern formed on a base sheet and a lead wire, wherein the tab pattern includes: a tab main portion; and a connecting portion formed to continue from one edge line of the tab main portion and to extend from the tab main portion along an extension line that is substantially orthogonal to the edge line, and wherein the method includes: connecting the lead wire on the tab main portion by bonding the lead wire at a position being displaced from the extension line of the connecting portion for more than a given offset amount where the extension line is identical to a center line of the connecting portion, the position being within a given distance from the edge line of the tab main portion.
Abstract:
A robust LED lamp may be assembly by forming a heat sinking sandwich with two metal heat sinks positioned around the circuit board and pinned together a heat conductive element. The assembly is positioned by pressing it into a base providing electrical connections. The robust assembly is rapidly assembled, thermally effective in draining or spreading heat from the circuit board and is readily adaptable to a variety of applications lighting. The heat sink may be decorated, colored or otherwise esthetically enhanced for consumer appreciation.
Abstract:
A component arrangement comprising a carrier, a component in a housing with electrical contacts and a moulding compound that encloses the carrier, the semiconductor component in the housing and the electrical contacts, wherein the component is applied on the carrier, and wherein the carrier is provided with holes, and a method for producing a component arrangement, wherein the carrier is provided with holes, the component is positioned on the carrier, the component is connected to the carrier, the component with the carrier is positioned in the leadframe, and this arrangement is enclosed by a moulding compound.
Abstract:
An electronic display assembly where the components can be removed and serviced or replaced without having to remove the display from its position. A backplane may be in electrical communication with the image producing assembly and may contain a plurality of blind mate connectors. Various electronic assemblies may be connected to the blind mate connectors. An access panel may provide access to the electronic assemblies so that they can be removed from the housing. N+1 power supplies may be used so that if one fails the unit would continue to operate until the failed power supply could be replaced. The electronic assemblies may be removed from the left side, right side, top, or bottom surfaces of the display housing. Any flat panel electronic display may be used.
Abstract:
An electronic circuit device 1 arranged with a first substrate 11, a core 33 (magnetic body) mounted on the first substrate 11, a resin sealing body 17 which covers the first substrate 11 and the core 33, and a curable type stress relieving material 35 which reduces stress applied to the core 33 by the resin sealing body 17 is arranged within the resin sealing body 33 from the side surface periphery of the core 33 across to the first substrate 11.
Abstract:
An electronic circuit device includes a sub-board disposed upright on a main board. The sub-board is electrically coupled to the main board via a board terminal) disposed at sub-board edge. A semiconductor element is mounted on the sub-board facing the sub-board in parallel. A temperature sensor is also mounted on the sub-board. A heat sink is formed so as to surround the sub-board and the semiconductor element. A resin material is injected inside a heat sink so as to cover the sub-board, the temperature sensor, and the semiconductor element.