Abstract:
The present invention relates to a socket for electronic component which contains an electronic component. The socket for electronic component comprises a platy base, containers formed to be concaved on a front face of the base and to contain LED packages therein, connectors provided on side faces and connected to other members, supports each of which supports and fixes the LED package contained in the container and electrically connected to the LED package, heat conductors each of which is provided continuously from a bottom face side of the container to a rear face of the base and contacts the LED package contained in the container so as to conduct heat generated by the LED package, and terminals electrically connected to the other members coupled with the connectors and the supports. The heat generated by the LED package is conducted to the rear face of the base through the heat conductors, and effectively radiated to an installation member on which the socket for electronic component is mounted.
Abstract:
A connecting structure is for a printed wiring board to be electrically connected to a FPC. The FPC includes a substrate and electro-conductive portions. The printed wiring board includes an insertion opening provided on an edge surface thereof, and line connecting terminals formed on an inner wall face of the insertion opening. A dual in-line contact member including first contact members is fixed to the top end portion of the FPC. Each first contact member includes a main body, and a first arm and a second arm extending from the main body generally in parallel to each other. Furthermore, the first arm and the second arm are bent at bent portions so as to form curves protruding away from each other. With the present embodiment, at least one of the first arm and the second arm press the corresponding line connecting terminal provided within the insertion opening at the bent portion thereof by inserting the FPC to the insertion opening of the printed wiring board. Thus, the FPC is connected to the edge surface of the printed wiring board. This improves the freedom from the perspective of design of the wiring pattern as well as allowing mounting of circuit components with high circuit density.
Abstract:
The present invention relates to a method for partial replacement of a circuit board, comprising: providing a first carrier board and a replaced board which has a second circuit board and a plurality of linkage arm which keeps the second circuit board at the replaced board; cutting a lifted board from the first carrier board to make a void part at the first carrier board; and combining the replaced board with the first carrier board at the void part. Base on the present invention said above, if the first carrier board related to the present invention has more first circuit boards, the method of the present invention still works and each first circuit board can be replaced with a second circuit board of the replaced board to make the first carrier board complete.
Abstract:
The present invention provides a wiring board including a first board provided with a first wiring pattern and a second board provided with a second wiring pattern while the first wiring pattern and the second wiring pattern are electrically connected, wherein the first board includes: a board insertion opening in which the second board is inserted; and a first connection pattern provided inside the board insertion opening and electrically connected to the first wiring pattern, and the second board includes: an inserting portion to be inserted into the board insertion opening of the first board; and a second connection pattern provided at a position opposed to the first connection pattern and electrically connected to the second wiring pattern in the case where the inserting portion of the second board is inserted into the board insertion opening of the first board, and further comprising: solder or brazing filler metal applied at least to a surface of one of the first connection pattern and second connection pattern; and a heat generating device which generates heat by energization and melts the solder or the brazing filler metal to connect the first connection pattern with the second connection pattern.
Abstract:
The present invention relates to a connection structure for a printed wiring board to be electrically connected to a FPC. The FPC comprises a long substrate, a plurality of conductors laminated on the surface of the substrate and extending along an axial direction of the substrate. The printed wiring board comprises a planar main wiring board, an insertion opening, and a plurality of the through-hole terminals. Each of the conductors of the FPC abuts the through-hole terminal upon the insertion of the FPC into the insertion opening of the printed wiring board. According to the invention, a connector structure to be connected to FPC is provided inside the printed wiring board in order to mount circuit element in high density, and thus improve degree of freedom in designing wiring pattern.
Abstract:
There is disclosed a printed inductor 1 having a spiral coil formed outside a cavity 2 by providing an insulating substrate 3 with the cavity 2 extending in a direction orthogonal to that of the thickness of the insulating substrate 3, forming a plurality of mutually independent printed wiring lines 4 on both the top and bottom faces of the insulating substrate 3 facing each other through the cavity 2, and sequentially and continuously connecting terminals of the printed wiring lines 4 on both the top and bottom faces to each other through a plurality of through holes 5.
Abstract:
A module and a corresponding connector that include multiple rows of contacts is described. In one embodiment, the module may include a channel formed in a bottom edge of the module. A plurality of contacts may be disposed on the inner surface of the channel and the outer surface of the module. A complementary connector is also described.
Abstract:
A multi in-line module and an electronic component socket for the multi in-line module are provided. One embodiment of a multi in-line memory module includes a printed circuit board having at least two protrusions formed along one edge of the printed circuit board. Each of the protrusions has first and second surfaces for blocks of contact pins. Accordingly, the module can include three or more pin blocks on separate surfaces of the protrusions. The module provides a large number of pins without being significantly larger than a conventional SIMM or DIMM. Alternatively, physical and electrical attachment of multiple circuit boards provides three or more independent pin blocks on the various surfaces of the printed circuit boards. A socket for a module includes dielectric protrusions with two or more gaps between the protrusions and contact pins on side surfaces of the protrusions that are in the gaps. Inserting the protrusions of a multi in-line module into the gaps between the protrusions of the socket creates an electrical connection between contact pins on the module and contact pins of the socket.
Abstract:
A gas assisted injection molded part includes internal cavities extending between two surfaces of the part. The cavities are plated for electrical conductivity after a surface cleaning and etching process. The part may be an automobile instrument panel wherein the internal cavities are plated to create a series of "bus" conductor lines. These lines carry power, ground and/or electrical signals over relatively large distances, allowing other components to attach at points along the structure eliminating the need for discrete wiring and wire harness interconnect assemblies.
Abstract:
An insulating part for an electronic device includes a first metallized outer surface capable of cooling one or more electronic components disposed on the insulating part. The insulating part also includes one or more additional metallized outer surfaces, such as a set of cooling ribs, to provide improved cooling for the electronic components. These additional outer surfaces are coupled electrically and thermally to the first metallized outer surface, and to each other by recesses containing a heat transfer element, such as a metallization or a soldered connection. Thus, heat transferred to the first outer surface is further dissipated among the several additional cooling surfaces.