Abstract: An integrated circuit includes a first diffusion area for a first type transistor. The first type transistor includes a first drain region and a first source region. A second diffusion area for a second type transistor is separated from the first diffusion area. The second type transistor includes a second drain region and a second source region. A gate electrode continuously extends across the first diffusion area and the second diffusion area in a routing direction. A first metallic structure is electrically coupled with the first source region. A second metallic structure is electrically coupled with the second drain region. A third metallic structure is disposed over and electrically coupled with the first and second metallic structures. A width of the first metallic structure is substantially equal to or larger than a width of the third metallic structure.

Abstract: A memory card connector includes a dielectric housing having a terminal-mounting base and a pair of side wall sections extending forwardly from opposite sides of the base. A card eject mechanism is mounted on the housing and has a slide member movable in a card insertion/ejection direction. A card ejector plate spans the side wall sections of the housing. The ejector plate is connected to the slide member for movement therewith. The ejector plate is engageable with an inserted memory card for ejecting the card.

Abstract: A memory card connector includes an insulating housing defining a first card-insertion space and a second card-insertion space for receiving first and second memory cards, respectively. A stop mechanism is movably mounted on the housing and is engageable by the first memory card when inserted into the first space for movement into the second space to prevent the second memory card from being inserted thereinto. The stop mechanism is engageable by the second memory card when inserted into the second space for movement into the first space to prevent the first memory card from being inserted thereinto.

Abstract: A memory card connector is provided for receiving different types of memory cards. The connector includes a two-part dielectric housing which defines a card-receiving space or cavity between the housing parts. The two-part housing includes an upper housing part overmolded about portions of a plurality of terminals in a first set thereof having contact portions for engaging a first type of memory card. A lower housing part is overmolded about portions of a plurality of terminals in a second set thereof having contact portions for engaging a second type of memory card. The upper and lower housing parts are joined to define the card-receiving space.

Abstract: A memory card connector includes an insulating housing which at least in part defines a card-receiving space for receiving one or more different types of memory cards. First and second sets of conductive terminals are mounted on the housing for engaging appropriate contacts of first and second different types of memory cards inserted into the space. First and second conductive guide terminals are respectively mounted at opposite sides of the card-receiving space. The guide terminals include generally rigid body portions having first guide surfaces for guiding the first type of memory card into the card-receiving space and second guide surfaces independent of the first guide surfaces for guiding the second type of memory card into the card-receiving space.

Abstract: A memory card connector includes a dielectric housing having a terminal-mounting base and a pair of side wall sections extending forwardly from opposite sides of the base. A card eject mechanism is mounted on the housing and has a slide member movable in a card insertion/ejection direction. A card ejector plate spans the side wall sections of the housing. The ejector plate is connected to the slide member for movement therewith. The ejector plate is engageable with an inserted memory card for ejecting the card.

Abstract: A protection cover integrally formed of plastic by molding ejection is provided. An elastic locking structure is disposed at two sides of the protection cover. An abutting portions having a ‘<’-shaped part and a ‘>’-shaped part is formed on the locking structure to abut against the outer edge wall of the connector so that the protection cover and the connector can be firmly connected together. Reinforcement portions are formed at the inner top face and the link positions at two inner sides of the protection cover.

Abstract: An improved connector protection cover integrally formed of plastic by molding ejection is provided. An elastic locking structure is disposed at two sides of the protection cover. An abutting portions having a ‘<’-shaped part and a ‘>’-shaped part is formed on the locking structure to abut against the outer edge wall of the connector so that the protection cover and the connector can be firmly connected together. It is not necessary to use a professional tool like a screwdriver to separate the protection cover from the connector. Scrapes on the surface of the connector can also be avoided. Moreover, reinforcement portions are formed at the inner top face and the link positions at two inner sides of the protection cover to prevent the protection cover from crushing terminals in the connector due to stacking of the connectors during transportation.

Abstract: A light-guiding connector casing structure includes an internal casing that is enclosed within an external casing to prevent electromagnetic interference. The internal casing is comprised of left and right half bodies that are fabricated from light-guiding material and assemble with each other. A face of the internal casing is transparent while other faces are opaque. Within upper and lower halves of the internal casing are respectively defined upper and lower placement spaces where a signal connector and a USB connector are respectively mounted. A mounting space proximate to a rear side of the internal casing receives front and rear guiding blocks. Two sides of the rear guiding block have guiding slots where connecting wires of light-emitting elements and positioning bars of the left and right half bodies insert. Protruding wires pass through the front guiding block and a plate of the rear guiding block to connect the signal connector.

Abstract: This invention provides a combined base frame for supporting and fixing a CPU heat sink. The base frame has a left-side frame body and a right-side frame body. The buckling pieces are integrally formed under the base frame. The base frame can be efficiently mounted on a circuit board by the engagement between the left-side frame body and a right-side frame body. When an operator needs to install a CPU onto the circuit board, the base frame can be disassembled in a short time.

Abstract: A CPU cooling device with a mounting mechanism has at least one pair of wedge members. The wedge member has a positioning end for passing through a through hole of a vertical plate, a protruding block, a snapping plate for retaining a fixing frame by means of engagement of a distal snapping end on the snapping plate and a flange of the fixing frame, and an embedding plate for locking a radiator by inserting the embedding plate into a groove on a ledge of the radiator.