Abstract:
A circuit board clamping device is applied to at least two spaced and stacked circuit boards, wherein the two circuit boards are spaced apart and fixed by a plurality of spacing posts. The circuit board clamping device includes a securing member, a pressing member and a forcing member. The securing member can be disposed on one of the circuit boards and adjacent to the spacing posts. The pressing member can be disposed on the securing member and is used to press the spacing posts. The forcing member is disposed on the pressing member and is engaged with the pressing member. The two circuit boards are securely stacked and coupled to each other by the pressing member pressing the spacing posts.
Abstract:
An Advanced Mezzanine Card (AMC) adapter may be used to connect a non-AMC mezzanine card to an AMC carrier. The AMC adapter may include a card edge connector configured to be connected to an AMC connector on the AMC carrier and one or more mezzanine connectors configured to be connected to the non-AMC mezzanine card. The AMC adapter may also include a bridge to convert between communication protocols used by the non-AMC mezzanine card and the AMC carrier. Of course, many alternatives, variations, and modification are possible without departing from this embodiment.
Abstract:
Embodiments include apparatus, methods, and systems of an electronic module for a system board having at least one pass-thru hole. An exemplary electronic module, connectable to a system board with a pass-thru hole, includes a first portion coupled to one side of the system board. The first portion has a printed circuit board (PCB) with plural processors. A second portion of the electronic module couples to a second, opposite side of the system board. The second portion has a power system board electrically coupled to the first portion. The second portion also includes a thermal dissipation device that extends through the pass-thru hole of the system board.
Abstract:
A method and apparatus for fabricating a three dimensional array of semiconductor chips is disclosed. The method uses a multiple step fabrication process that automates the surface mounting of semiconductor chips with unique chip carriers to achieve the three dimensional array of chips. The method can include the steps of depositing solder on one or more chip modules, placing and interconnecting low-cost components on the chip modules, and storing the preprocessed chip modules in pallets or in a tape and reel. Later these chip carriers may then be mounted on a circuit board, possibly over; for example, low and/or high cost components and then populated with low and/or high cost components. The apparatus includes a unique stackable chip module pallet and print fixture pedestal.
Abstract:
Connection system to connect a plurality of communication channels to an electronic apparatus such as a personal computer, a PC-cluster or suchlike, and expansion card to manage the communication channels on the electronic apparatus. The electronic apparatus has a chassis. The system consists of a first printed circuit, which supports first connectors for managing a first pair of communication channels on the electronic apparatus and connection members for assembling at least a second printed circuit. The second printed circuit supports in turn second connectors for managing a second pair of communication channels on the electronic apparatus. The first and the second printed circuit develop at least partly outside the chassis.
Abstract:
In some example embodiments, an integrated circuit, electronic assembly and method provide a current path for supplying power to a processor. As an example, the integrated circuit includes a base having power contacts that extend from an upper surface of base. The integrated circuit further includes a substrate that is mounted to the upper surface of the base to electrically couple the substrate to the base. A die is mounted on a substrate such that the die is electrically coupled to the substrate. The power contacts on the upper surface of the base engage a daughterboard so that the die is able to receive power from a voltage source mounted on the daughterboard through the power contacts on the upper surface of the base.
Abstract:
A liquid crystal display device includes a liquid crystal display panel having a first substrate and a second substrate opposed thereto arranged so that the inner surfaces thereof oppose each other with an intermediate sealing member and a liquid crystal interposed in the internal space, and a flexible printed circuit board having an input/output terminals connected thereto. A circuit board on which a plurality of electronic components required for operating the liquid crystal display apparatus are mounted on the flexible printed circuit board.
Abstract:
An optical module which can achieve miniaturization, high performance and cost reduction is provided. The optical module includes a photoelectric component, a high-speed signal processing part which processes a high-speed signal photoelectrically converted by the photoelectric component, and a low-speed signal processing part which processes a low-speed signal. The high-speed signal processing part and the low-speed signal processing part are overlapped with each other in a vertical direction and electrically connected to each other.
Abstract:
A semiconductor assembly includes a module holder and a semiconductor module, which has a board substrate with conductor tracks and one or more unpackaged semiconductor chips mounted on the substrate, which are connected to conductor tracks on the substrate by electrical contacts. The substrate has at one edge at least one contact strip with connection contact areas, which are connected to at least some of the conductor tracks. The module holder has a plug-in connection for the electrical connection to other components, at least one mating contact strip for the connection to the contact strip of the at least one semiconductor module and electrical conductors between the contact areas of the at least one semiconductor module and electrical contacts of the plug-in connection. The configuration allows semiconductor modules to be connected to the outside world in an economical way.
Abstract:
The invention relates to arrangements for the power supply of integrated circuits. Various solutions are proposed with a view to guaranteeing a power supply satisfying all the technical requirements with regard to ever greater permissible load jumps, greater permissible current change rates and ever tighter tolerances regarding the constancy of the supply voltage in question. In particular an arrangement with an integrated circuit (2) mounted on a bearing means (1) and a power supply module arrangement (3) is proposed, which is placed on the combination of bearing means (1) and integrated circuit (2) and whose base extends at least partially over the base of the integrated circuit (2) and/or all around the base of the integrated circuit (2).