Abstract:
A connector assembly is provided with opposing and interengageable first and second connector components. Each of the two components preferably includes upper and lower housing formed from an insulative material, with cavities formed therein that receive terminal assemblies. The upper and lower housings are formed with internal cavities that extend in different directions. These cavities are aligned together when the upper and lower housings are assembled together to define a plurality of internal cavities that extend through the first and second connector components. Each cavity contains a terminal assembly with differential signal terminals. The terminals have contact portions, tail portions and interconnecting portions that are partially encapsulated by an insulative outer shell. The exterior surfaces of the connector components are plated with a conductive material so that the connector components serve as grounds for the differential signal terminals.
Abstract:
A connector assembly for connecting differential signal circuits on two different circuit boards has a connector housing formed from an insulative material with a conductive coating on the surfaces thereof and with cavities formed therein to receive terminal assemblies. Each internal cavity may have an elongated portion that extends transversely across the housing and a plurality of leg portions in communication with the elongated portion to define passages between opposite sides of the connector. Each cavity is suited for holding a terminal assembly having at least one pair of differential signal terminals. The terminals have opposing compliant tail portions, and interconnecting portions that are partially encapsulated by an insulative outer shell. Two shells are combined together to form a single terminal assembly. The terminal assemblies are identical in shape so that they may be inserted into any of the cavities of the housings, thereby imparting a measure of modularity to the connectors.
Abstract:
A card edge connector assembly is adapted for receiving a printed circuit card having an insertion edge insertable into and removable from the connector assembly. The assembly includes an elongated dielectric housing having a card-receiving slot. A lever is pivotally mounted on the housing near an end of the slot. The lever includes a front face, a latch portion extending forwardly of the front face for engaging a notch in a side edge of the card, an ejector portion extending rearwardly of the front face for engaging the insertion edge of the circuit card at a corner thereof and ejecting the card from the slot in response to pivoting of the lever. A limiting portion limits longitudinal movement of a side edge of the card when the card is in the slot. A hollow area is provided between the ejector portion and the limiting portion for receiving the corner of the card when the lever is pivoted and the card is ejected.
Abstract:
An IC card includes a generally rectangular frame. A circuit board assembly is mounted on the frame, with the circuit board assembly including a generally planar dielectric substrate having circuit traces and at least one electrical component mounted thereon. A receptacle connector including terminals is mounted at an edge of the circuit board assembly, with the terminals being adapted to mechanically and electrically engage the circuit traces on the circuit board assembly. Complementary interengaging latches are provided between the frame and the receptable connector for securing the receptacle connector at the edge of the circuit board assembly and for ensuring a mechanical and electrical connection between the terminals and the circuit traces on the circuit board assembly. The invention also contemplates a method of fabricating the IC card according to the above.