Abstract:
An apparatus and a method for adding capacitance while conserving circuit board surface area. An apparatus for adding capacitance while conserving circuit board surface area includes a flex capacitor circuit with an upper surface and a lower surface and a plurality of conductive layers and an integrated-circuit (IC) device mounted on to the upper surface of the flex capacitor circuit and electrically connected to the flex capacitor circuit. The flex capacitor circuit is configured to provide bypass capacitance and, therefore, adds capacitance to the IC device when the IC device is mounted on the flex capacitor circuit.
Abstract:
The present description provides increased contrast between interposer and leads in a stack embodiment that employs an interposer that extends beyond a boundary or perimeter established by the leads of the constituent IC devices.
Abstract:
The present invention mechanically integrates a flexible printed circuit pre-disposed with solder and flux and two or more leaded integrated circuit packages into an assembly that does not require a solder reflow process prior to the reflow cycle to attach the assembly to a printed circuit module. Each IC device includes: (1) a package having a top, a bottom and sides; and (2) external leads that extend out from one or more sides for electrical connectivity to a printed circuit module. Each flexible circuit includes: (1) a multi-segment pattern for each IC connection where there is a segment for: (a) attaching a package lead to the flexible printed circuit; (b) a segment for attaching a preformed piece of solder and flux; (c) a bridge for the solder to flow when heated to the package lead attach segment; (2) solder and flux and (3) adhesive to bond the flexible printed circuit to the packages and bond the packages together.
Abstract:
An intercoupling component is provided that electrically connects the device leads of an integrated circuit package to a substrate. The package includes external device leads, each device lead having a downwardly extending section proximate a side of the package body, and the intercoupling component includes an insulating support member. The support member includes a first surface including first electrical attachment sites, each configured for making an electrical connection with a corresponding one of the device leads of the package. The support member also includes an opposite second surface including second electrical attachment sites in electrical contact with the first electrical attachment sites, each of the second electrical attachment sites including a plurality of solder balls associated with each device lead. The plurality of solder balls are used to form an electrical connection between each surface mount pad on the substrate and the corresponding conductive pad of the intercoupling component.
Abstract:
An adapter module is described. The adapter module includes a circuit board, a first socket and an adapter device. One face of the first socket is electrically connected to the circuit board on the first face of the circuit. The other face of the first socket connects to a first central processing unit (CPU). One face of the adapter base is electrically connected to the circuit board on the second face of the circuit board. The other face of the adapter base connects to a second socket. The circuit board sends signals from the second socket, through the adapter base and the first socket, to the first CPU. When the adapter base is not connected to the second socket, the second socket is capable of connecting to a second kind of CPU.
Abstract:
An electronic apparatus has a first circuit board and a second circuit board. The first circuit board has a first connector mounted thereto. The second circuit board has a second connector which is mounted to a first surface and is mechanically coupled to the first connector, and a third connector which is mounted to a second surface positioned on a backside of the first surface in an overlapping relation to the second connector with the second circuit board interposed between the second and third connectors, and which is mechanically coupled to a connector of an external device.
Abstract:
A LSI package encompasses: an interposer having board-connecting joints, which facilitate connection with a printed wiring board, and module-connecting terminals, part of the module-connecting terminals are assigned as interposer-site monitoring terminals; a signal processing LSI mounted on the interposer; and an I/F module having a plurality of interposer-connecting terminals, which are arranged to correspond to arrangement of the module-connecting terminals, and a transmission line to establish an external interconnection of signal, which is transmitted from the signal processing LSI, part of the interposer-connecting terminals are assigned as module-site monitoring terminals. The interposer-site and module-site monitoring terminals are configured to flow a monitoring current to confirm electric contact between the signal processing LSI and the I/F module.
Abstract:
The present invention discloses an apparatus for operatively connecting a PCI-X or AGP device card (having a PCI-X or AGP bus) to a PCI-E bus connection on a mother board by mounting the PCI-X or AGP device card to a right edge connector mounted on a surface of an adapter card, the adapter card having a PCI-X (or AGP) to PCI-E bridge circuit for interconnecting a PCI-X (or AGP) bus to a PCI-E bus.
Abstract:
An oscillator assembly includes an oscillator circuit that is configured to generate a frequency signal. A temperature compensation circuit is in communication with the oscillator circuit and adapted to adjust the frequency signal in response to changes in temperature. The oscillator and temperature compensation circuits are located within an oven. A heater and a temperature sensor in communication with the heater are also both located in the oven. The temperature sensor is adapted to directly control the heater in response to changes in temperature. In one embodiment, the oscillator components are mounted to a ball grid array substrate which, in turn, is mounted on a printed circuit board. In this embodiment, a resonator overlies the ball grid array substrate and a lid covers and defines an oven and enclosure for the resonator and the ball grid array substrate. The oscillator and temperature compensation circuit are defined on the ball grid array substrate.
Abstract:
Disclosed is a liquid crystal display device of which overall size and weight can be minimized. The liquid crystal display device has a light generating unit for generating a light. A light guiding plate guides the light to a display unit for displaying an image. A reflection plate is disposed under the light guiding plate for reflecting the light to the light guiding plate. A receiving container receives the reflection plate, the light guiding plate and the light generating unit. At least one boss is formed on a bottom of the receiving container for preventing the light generating unit from being moved by guiding a position of the light generating unit. Accordingly, the number of the parts installed in the liquid crystal display device can be reduced, and the manufacturing cost can be decreased because the manufacturing process is simplified in comparison with the liquid crystal display device including a separate lamp cover.