Abstract: An electrical connector designed for high speed signals. The connector includes one or more features that, when used alone or in combination, extend performance to higher speeds. These features may include compensation for tie bars that are used to hold conductive members in place for molding a housing around the conductive members. Removal of the tie bars during manufacture of the connector may leave artifacts in the conductive members and/or housing, which may be addressed by the features. The conductive members, for example, may include regions, adjacent tie bar locations, that compensate for portions of the tie bar that are not fully removed. Alternatively or additionally, a housing may include openings around tie bar locations such that a punch may be used to sever the tie bars. These openings may be filled to avoid performance-affecting artifacts.

Abstract: A connector with embedded charging integrated circuits mainly has an insulating housing, an insulating base, a plurality of connecting terminals, a PCB, a charging IC, and a plurality of forwarding terminals. A tongue portion extends outward from one side of the insulating housing, a plurality of terminal slots are disposed in the tongue portion. The connecting terminals, the forwarding terminals and the charging IC electrically connect with the PCB. The insulating base is to carry the PCB, and the connecting terminals are accommodated in the terminal slots while the insulating base assembles with the insulating housing. While the connector receives electrical energy provided by the motherboard of an external device, the charging current provided by the motherboard is transmitted to the charging IC through the forwarding terminals, the charging current processed and improved by the charging IC is output via the connecting terminals to speed up the charging.

Abstract: An electrical connector includes a conductive connector housing that supports a plurality of contact modules that includes electrical ground contacts and electrical signal contacts electrically isolated from each other in the respective contact modules. The electrical ground contacts are in electrical communication with the connector housing so as to electrically common the ground contacts together.

Abstract: An electrical connector for electrically connecting a chip module with a printed circuit board includes an insulative housing and a number of contacts fixed in the insulative housing. The insulative housing includes an upper component and a lower component cooperated with the upper component. The upper component has a protruding portion and the lower component has a hole cooperated with the protruding portion. The protruding portion is in touch with the hole and the contacting area is plated with a metal fillings. It is easy to assemble and it has better shielding effects.

Abstract: Plug connections on radar sensors include plug pins which are inserted into plastic. The plastic that surrounds the plug pins is at least partially provided with a granulate that absorbs radar waves, such that the electrical impedance of the plastic has a high value in low-frequency range, and the plastic comprises a characteristic which absorbs radar waves in a region of higher-frequency radar waves. The plug pins are surrounded by a thin layer of plastic without radar-absorbent granulate, and a remainder of an area surrounding the plug pins includes the plastic with the granulate which absorbs radar waves.

Abstract: An electrical connector assembly including an electrical connector that has a connector body with mating and interior sides facing in opposite directions. The electrical connector also includes electrical contacts that are held by the connector body. The connector assembly also includes an interposer having a connector side, an opposite board side, and plated vias that extend into the interposer from at least one of the connector or board sides. The connector side engages the interior side of the electrical connector. The electrical contacts of the electrical connector are electrically coupled to corresponding vias. The connector assembly also includes board contacts that extend from the board side of the interposer and are electrically coupled to corresponding vias. The board contacts are communicatively coupled to the electrical contacts through the interposer.

Abstract: An electrical connector including a connector housing having a mating face that is configured to engage a mating connector. The electrical connector also includes a contact module that is held by the connector housing and that includes differential pairs of signal conductors. The contact module also includes dielectric ribs that encase corresponding signal conductors. The dielectric ribs are spaced apart from one another. The contact module also includes guard conductors that extend between and couple to adjacent dielectric ribs. The contact module also includes a conductive layer that is disposed on the dielectric ribs and the guard conductors. The conductive layer is electrically coupled to the guard conductors.

Abstract: A method for manufacturing a conductive contact holder includes forming, from an insulating material, a holder member for holding a plurality of conductive contacts; forming, from a conductive material, a substrate having a hollow portion to which the holder member can be fitted; and fixing the holder member formed from the insulating material by fitting the substrate into the hollow portion of the substrate formed from the conductive material.

Abstract: An electrical connector includes an insulating body, a plurality of terminal units, a plurality of insulating lump units, and a plurality of shielding units. The insulating body has a plurality of receiving holes arranged thereon. Each of the insulating lump units has a terminal fixing slot for mounting the corresponding terminal unit there-through. Each of the shielding units is respectively disposed on the periphery of the corresponding insulating lump unit without contacting the terminal unit mounted thereon. The terminals are disposed in the receiving holes of the insulating body. The insulating lump units can prevent shorting between the terminals and the shielding units, while the shielding units can enhance the anti-EMI capability of the instant connector.

Abstract: Plug connections are proposed on radar sensors having plug pins which are inserted into plastic, in which the plastic (5, 6; 11) which surrounds the plug pins (4) is at least partially provided with a granulate which absorbs radar waves, such that the electrical impedance of the plastic (5; 11) has a high value in the low-frequency range, and the plastic (6) has a characteristic which absorbs radar waves in the region of higher-frequency radar waves. For this purpose, the plug pins (4) can be surrounded by a layer of plastic (5; 11) without radar-absorbent granulate, and the rest of the area surrounding the plug pins (4) consists of the plastic (6) with the granulate which absorbs radar waves.

Abstract: An alien crosstalk preventive electrical socket, electrical plug and network cable, in which the body, upper back cover, lower back cover and IDC housing of the electrical socket, the insulative jacket, rack and plug body of the electrical plug and the cylindrical outer insulation of the network cable are made of an electrically conductive plastic complex material prepared from a compound of a plastic material and an electrically conductive material, said electrically conductive plastic complex material having high dielectric index and low electrical resistivity characteristics to avoid signal in and signal out and to reducing alien crosstalk, thereby effectively preventing EMI (electromagnetic interference) radiation.

Abstract: An electrical connector includes an insulating body, a plurality of terminals, a plurality of shielding layers, and a plurality of insulating layers. The insulating body has a plurality of terminal-receiving holes. The shielding layers are mounted on the terminal-receiving holes. The insulating layers are mounted on the shielding layers, and the terminals are disposed in the terminal-receiving holes. Thereby, the insulating layers prevent EMI between terminals and ensure the terminals do not contact the shielding layers.

Abstract: A cassette includes a housing having a plurality of plug cavities that are separated from adjacent plug cavities by shield elements. The cassette also includes a contact subassembly having a circuit board and a plurality of contacts arranged in contact sets coupled to the circuit board. The contact sets are configured to mate with different plugs. The contact subassembly is loaded into the housing such that the contact sets are received in different plug cavities, wherein the contact sets are separated from adjacent contact sets by the shield elements.

Abstract: An electrical connector (1) has an insulative housing (10) including a number of receiving passages (100), a number of terminal modules (20) mounted to the insulative housing and located adjacent to another and shielding plates (3). The terminal module has a base (22) including a first side (223), a plurality of terminals (21) secured to the base and a spacer (23) received to the insluative housing. The shielding plates have at least a first shielding plate (30) assembled to the first side (223) of the terminal module and including a number of tines (31) connected to a printed circuit board, and a second shielding plate (40) assembled to the first side of neighboring terminal module and having a connecting section (41) connected to the first shielding plate.

Abstract: An electrical connector (100) includes an insulative housing (10) comprising a fitting room (13) for receiving a mating connector and a pair of side walls, a plurality of terminals (30) arranged along a longitudinal direction, and a shell (20) coupled to the insulative housing. One side wall of the shell (20) comprises a middle portion (23) received in corresponding one side wall (11a) of the insulative housing and a pair of connecting strips (25) integrally connecting with the middle portion and a part of the shell shielding an outside of the insulative housing.

Abstract: A shielded connector achieving sufficient contact load between a shielded conductor and a crimp portion of an outer conductor shell without influence such as deformation of cross sections on signal wires when the crimp portion is crimped onto the conductor, and enhanced pull-out strength of a shielded cable against the shell. The shell includes a tubular connection portion having an arc-shaped cross section and arranged to be inserted into the conductor end portion exposed by stripping off a sheath portion at the cable end portion, shielded conductor crimping portions opposed to the connection portion and arranged to be crimped onto the conductor end portion into which the connection portion has been inserted, and fitting spaces provided to an inside of the conductor crimping portions at positions opposed to the tubular connection portion. Upper ends of the connection portion and the conductor are inserted into the spaces during crimping process.

Abstract: A connector assembly is provided that includes a front end mating connector which is received in a socket. The front end mating connector includes a pluggable transceiver, latching mechanism, and passive optical connector. Standard optical ribbon fibers are provided that plug into the passive connector, which in turn plugs into the transceiver. The passive connector and the transceiver are coupled together by the latching mechanism. The coupled connector then plugs into the socket in a first direction. The socket includes electrical connector wafers. As the transceiver is plugged into the socket, circuit boards within the transceiver move in a second direction to engage the wafers. The transceiver has a circuit that converts the optical signals received by the receiver ribbons into electrical signals that are recognized by the wafers and passed to the circuit board.

Abstract: An electrical connector (1) has an insulative housing (10) including a number of receiving passages (100), a number of terminal modules (20) mounted to the insulative housing and located adjacent to another and shielding plates (3). The terminal module has a base (22) including a first side (223), a plurality of terminals (21) secured to the base and a spacer (23) received to the insluative housing. The shielding plates have at least a first shielding plate (30) assembled to the first side (223) of the terminal module and including a number of tines (31) connected to a printed circuit board, and a second shielding plate (40) assembled to the first side of neighboring terminal module and having a connecting section (41) connected to the first shielding plate.