Abstract:
A package comprises a body, and an electrically conductive pattern supported by said body. An interface portion is configured to receive a module to a removable attachment with the package. The electrically conductive pattern comprises, at least partly within said interface portion, a wireless coupling pattern that constitutes one half of a wireless coupling arrangement.
Abstract:
In order to solve the problem that connections between a module body and one or more antennas are unstable in an existing LGA module, provided are a Land Grid Array (LGA) module and a device. The LGA module comprises a module body and one or more antennas, wherein the module body and the one or more antennas are of an integrated structure. By the implementation of the present invention, the module body and the one or more antennas in the LGA module are integrated, so that the strength of connections between the module body and the one or more antennas are enhanced, a phenomenon that the module body is separated from the one or more antennas is avoided during use, and the stable running of the device is ensured.
Abstract:
Analyte sensor connectors that connect analyte sensors, e.g., conductive members of analyte sensors, to other devices such as sensor electronics units, e.g., sensor control units, are provided. Also provided are systems that include analyte sensors, analyte sensor connectors, and analyte sensor electronics units, as well as methods of establishing and maintaining connections between analyte sensors and analyte sensor electronics units, and methods of analyte monitoring/detection. Also provided are methods of making analyte sensor connectors and systems that include analyte sensor connectors.
Abstract:
The space of a flexible printed wiring board mounting region is saved, and the size of an electronic device mounted with this is reduced. The flexible printed board comprises a terminal board portion having terminals and a wiring board portion having wirings connected to the terminals. A terminal adjacent part of the wiring board portion adjacent along the length direction of the terminal board portion is foldable so that the terminal adjacent part can be laid on the opposite surface to the terminal forming surface of the terminal board portion.
Abstract:
A plurality of protruding substrate portions (12) is extended from positions placed at an interval from each other along a peripheral edge of a wiring substrate (10). Each of the protruding substrate portions (12) is provided with wiring terminals (15), (16) electrically connected to each of a plurality of electrode terminals provided to an electrical instrument substrate. A cut-out part (18) is formed in a peripheral edge (13a) between the protruding substrate portions (12) in the wiring substrate (10).
Abstract:
An implantable medical device (IMD) having a hermetic housing formed from a case and a cover each having an exterior surface and an interior surface. An IMD component is mounted to the interior surface of the cover and has an electrical contact. A hybrid circuit is assembled in the case. The IMD component electrical contact is electrically coupled to the to the hybrid circuit assembled in the case.
Abstract:
In the case of connecting a flexible substrate to a counterpart substrate by soldering, the area of a dead space on the counterpart substrate due to being covered with the flexible substrate is reduced to reduce the outside dimension of the counterpart substrate. Solder lands 61 and 62 on the flexible substrate 5 are soldered to solder lands 21 and 22 on the counterpart substrate 1. The flexible substrate 5 is divided into two branching pieces 71 and 72 by an incision 7 or a slit 8 formed in such a manner as to extend from an intermediate part in the arrangement direction R of circuit patterns to the leading end of the flexible substrate. The space between the solder lands 61 and 62 on the respective pieces 71 and 72 is made equal to the space between the two spaced-apart solder lands 21 and 22 on the counterpart substrate 1 by placing the pieces 71 and 72 formed by dividing the flexible substrate 5 on one another.
Abstract:
The invention relates to a method for mounting sub-assemblies (17) on components, in particular on vehicle doors (1). Once the elements of the sub-assembly (17) have been pre-assembled on a support element (13), the entire electric or electronic circuit that is contained in the sub-assembly is fixed in one step to the component (1). The almost exclusive use of flexible printed circuits for the connection between individual elements (14), such as switching, control or signal elements and the resultant weight savings, in addition to the automation of the mounting process permit a significant reduction in costs for the mass production of medium to large quantities.