Abstract:
A module integrated circuit (IC) carrier is used to move module ICs through a testing machine. The module IC carrier has a housing with a pair of installation elements installed parallel to one another in a receiving space of the housing. A plurality of holding members are installed on each of the installation elements. Each holding member on one of the installation elements faces a corresponding holding member on the other of the installation elements. Module ICs are held between corresponding pairs of the holding members. The holding elements can be biased towards each other to help hold the module ICs. Each holding element may include a rotator with a grooved edge which helps to hold a module IC, and which allows the module ICs to be easily inserted into and removed from the carrier.
Abstract:
Disclosed herein is an apparatus for collecting game data in order to test performance of a game server. The apparatus includes a capture and filtering module, a control module, and a data management module. The capture and filtering module captures packets, transmitted and received between the game server and each of a plurality of game clients, using the plurality of game clients, and extracts a plurality of necessary data by performing filtering on the results of the capturing. The control module determines the movement route of a game character in such a way as to correspond to the plurality of necessary data, and controls the plurality of game clients based on the movement route. The data management module stores and manages the plurality of necessary data.
Abstract:
A semiconductor module and a method of manufacturing a semiconductor module including at least one chip package, at least one module board, at least one conductive element provided between the first chip package and the module board and a protector for applying pressure to the conductive element, the module board, and the first chip package and/or acting as a heat sink for the first chip package.
Abstract:
Example embodiments of the present invention include a printed circuit board (PCB) capable of controlling the size and position of voids during a surface mounting process. To this end, the PCB includes: an insulating plate made of an insulating material; printed circuit patterns formed on the insulating plate; a plurality of lands to support a plurality of solder joints, each land coupled to one end of each of the printed circuit patterns; and anti-wetting layers mounted on a surface of each of the lands for solder joint therein. The anti-wetting layers allow a void produced during a surface mounting process to move to a central surface on a pad, so that the solder joint reliability between the solder ball and the land is increased. As a result, the reliability of a semiconductor device is enhanced.
Abstract:
A semiconductor device includes a semiconductor package, a circuit board and an interval maintaining member. The semiconductor package has a body and a lead protruded from the body. The circuit board has a first land electrically connected to the lead. The interval maintaining member is interposed between the circuit board and the body. The interval maintaining member maintains an interval between the lead and the first land. Thus, an interval between the lead and the land is uniformly maintained, so that a thermal and/or mechanical reliability of the semiconductor device is improved.
Abstract:
In the methods of compensating for an alignment error during fabrication of structures on semiconductor substrates, a conductive pattern structure is formed at a first position on a first semiconductor substrate. The conductive pattern structure includes a grid of first and second conductive patterns arranged as columns and intersecting rows with openings bounded therebetween. A first conductive contact structure overlaps the conductive pattern structure, and includes a plurality of spaced apart conductive contacts arranged as a grid of rows and columns that can be tilted at a non-zero angle relative to the grid of the conductive pattern structure. A determination is made as to whether the first conductive contact structure is electrically connected to the conductive pattern structure. A second conductive contact structure is formed at a position on a second semiconductor substrate that is determined in response to the determination of whether the first conductive contact structure is electrically connected to the conductive pattern structure.
Abstract:
Example embodiments of the present invention may include a printed circuit board, a method of manufacturing the printed circuit board, and a memory module/socket assembly. Example embodiments of the present invention may increase the number of contact taps on a memory module, in addition, a force required to insert the memory module into a module socket may be decreased.
Abstract:
An electronic component mounting apparatus that includes a demagnetizer used to demagnetize a head nozzle, and a method for demagnetizing an electronic component apparatus. The method may include setting conditions, mounting electronic components, and demagnetizing a head nozzle of the electronic component mounting apparatus based on the conditions.
Abstract:
An open socket, into which a module can be inserted, may include: a body into which the module is insertable; a pin to contact an electrical connection member of the inserted module, the pin serving as at least a part of an electrical signal path to/from the module upon insertion thereof; an elastic biasing member to exert an elastic biasing force to cause the pin to contact the module; and at least one lower support to limit insertion depth as being a depth at which a lower portion of the inserted module comes to rest upon the at least one lower support; the body and the at least one lower support being constructed and arranged to provide a gap adjacent the at least one support, which leaves an area of the socket underlying the lower portion of the inserted module open to the outside.