Abstract: A contact assembly includes a contact positioner holding a contact array having contacts and a ground shield including a ground plate along forward sections of the contacts and a ground panel along rearward sections of the contacts. The contact array includes a forward contact holder coupled to the ground plate and the forward sections to locate the forward sections relative to the upper ground plate. The forward contact holder includes forward slots to separate the forward contact holder into discrete sections. The contact array includes a rearward contact holder coupled to the ground panel and the rearward sections to locate the rearward sections relative to the ground panel. The rearward contact holder includes rearward slots to separate the rearward contact holder into discrete sections.

Abstract: An impedance matching structure for a high-speed connector includes a pair of ground leads, a differential pair of signal leads, a ground plane, a first region in which the ground leads and the differential pair of signal leads are coplanar within a first plane, and a second region in which the differential pair of signal leads lies on the first plane and the ground plane lies on a second plane extending along the first plane. The impedance matching structure has a transition region between the first region and the second region. The ground leads are connected to the ground plane in the transition region. An impedance matching projection is arranged in the transition region and projects from a side of the differential pair of signal leads.

Abstract: A cable shield tunnel for an electrical device includes a ground bus and a floor shim, discrete from the ground bus, and coupled to a circuit card and forming a cable tunnel that receives an end of a cable. The ground bus includes an end wall extending along a first end of the cable tunnel, a first side wall extending from the end wall along a first side of the cable tunnel, and a second side wall extending from the end wall along a second side of the cable tunnel opposite the first side. The first and second side walls are configured to be coupled to the circuit card. The floor shim is provided at a second end of the cable tunnel opposite the first end and is positioned between the cable and the circuit card.

Abstract: A cable shield tunnel for an electrical device includes a ground bus and a floor shim, discrete from the ground bus, and coupled to a circuit card and forming a cable tunnel that receives an end of a cable. The ground bus includes an end wall extending along a first end of the cable tunnel, a first side wall extending from the end wall along a first side of the cable tunnel, and a second side wall extending from the end wall along a second side of the cable tunnel opposite the first side. The first and second side walls are configured to be coupled to the circuit card. The floor shim is provided at a second end of the cable tunnel opposite the first end and is positioned between the cable and the circuit card.

Abstract: A shielding housing includes a receptacle configured to receive an electrical connector assembly including an electrical connector and a mating connector connected to the electrical connector. The receptacle is formed as a straight passage with an opening at each end of the straight passage. Either end of the straight passage receives one of the electrical connector and the mating connector along a mating axis coaxial with the straight passage.

Abstract: A shielding housing includes a receptacle configured to receive an electrical connector assembly including an electrical connector and a mating connector connected to the electrical connector. The receptacle is formed as a straight passage with an opening at each end of the straight passage. Either end of the straight passage receives one of the electrical connector and the mating connector along a mating axis coaxial with the straight passage.

Abstract: An electrical connector includes a housing and plural contact modules stacked adjacent to each other and held by the housing. Each contact module includes a contact array, a dielectric holder, and lossy blocks. The contact array includes signal contacts and ground contacts arranged in alternating pairs along a length of a column. The dielectric holder surrounds and engages the signal and ground contacts along intermediate segments thereof to secure the signal and ground contacts in place. The lossy blocks are mounted to the intermediate segments of the ground contacts within the dielectric holder. Each lossy block is associated with a corresponding pair of ground contacts and engages at least one of the ground contacts in the pair. The lossy blocks are composed of a lossy material that has a greater loss tangent than a low loss material that forms the dielectric holder.

Abstract: A header transition connector includes a header housing having a separating wall separating a first cavity from a second cavity. Header signal contacts are held by the header housing. The header signal contacts are arranged in pairs carrying differential signals. The header signal contacts have first mating ends in the first cavity for mating with a first receptacle connector. The header signal contacts have second mating ends in the second cavity for mating with a second receptacle connector. Header ground shields are held by the header housing. The header ground shields have first mating ends in the first cavity for mating with the first receptacle connector. The header ground shields have second mating ends in the second cavity for mating with the second receptacle connector. At least a group of the header ground shields are electrically commoned with each other within the header housing.

Abstract: A header transition connector includes a header housing having a separating wall separating a first cavity from a second cavity. Header signal contacts are held by the header housing. The header signal contacts are arranged in pairs carrying differential signals. The header signal contacts have first mating ends in the first cavity for mating with a first receptacle connector. The header signal contacts have second mating ends in the second cavity for mating with a second receptacle connector. Header ground shields are held by the header housing. The header ground shields have first mating ends in the first cavity for mating with the first receptacle connector. The header ground shields have second mating ends in the second cavity for mating with the second receptacle connector. At least a group of the header ground shields are electrically commoned with each other within the header housing.

Abstract: A high speed input/output plug assembly is disclosed having a plug body. A plurality of conductive traces are disposed on a surface of the plug body and connectable to an input/output cable. An electrically conductive grounding layer is positioned within the plug body and electrically insulated from the conductive traces, and has an opening extending through the grounding layer and below the conductive traces.

Abstract: Connecting element for data lines with a body with a receiving section with recesses for receiving wires of the data lines, whereby electrical conductors are disposed on the body, whereby the conductors are guided from the recesses to a contact area, whereby the electronic circuit is connected with the conductors, whereby the element is made of molded material.

Abstract: An electrical connector has a first row of contact pins. The first row of contact pins comprises a first grounding pin, a second grounding pin and a first signal pin arranged between the first grounding pin and the second grounding pin. A grounding bar electrically connects the first grounding pin and the second grounding pin.

Abstract: A high speed input/output plug assembly is disclosed having a plug body. A plurality of conductive traces are disposed on a surface of the plug body and connectable to an input/output cable. An electrically conductive grounding layer is positioned within the plug body and electrically insulated from the conductive traces, and has an opening extending through the grounding layer and below the conductive traces.

Abstract: Connecting element for data lines with a body with a receiving section with recesses for receiving wires of the data lines, whereby electrical conductors are disposed on the body, whereby the conductors are guided from the recesses to a contact area, whereby the electronic circuit is connected with the conductors, whereby the element is made of molded material.

Abstract: The present disclosure relates to a data transmission cable having at least one data transmission line for transmitting data signals, and at least one repeater unit. The data line and the repeater unit are integrated into the cable.

Abstract: An electrical connector has a first row of contact pins. The first row of contact pins comprises a first grounding pin, a second grounding pin and a first signal pin arranged between the first grounding pin and the second grounding pin. A grounding bar electrically connects the first grounding pin and the second grounding pin.

Abstract: The invention relates to a Switch connector for mounting on a printed circuit board, adapted to receive a mating connector in an insertion direction along an insertion axis. The switch connector comprises a shield, a contact element, and a contact spring having at least one fixed leg, at least one elastically deflectable switching leg, and at least one spring bend, the fixed leg and the switching leg extending from the spring bend in a common direction and passing the insertion axis. The switching leg is adapted to be moved by insertion of the mating connector from a rest position, at which the switching leg exerts a spring force onto the contact element, to a switching position, at which the switching leg is spaced apart from the contact element, at least one spring force flux that in the rest position is generated by the switching leg and guided in a closed loop to the fixed leg. To increase the reliability of the switching function, the shield is arranged in the closed loop of the spring force flux.

Abstract: The present invention relates to a universal serial bus (USB) connector for use in a base unit in a car kit comprising at least two pairs of shielded connection lines. It further relates to a USB cable for providing a shielded connection between a mobile unit and a car kit adaptor. The USB connector for use in a base unit in a car-kit comprises two twin axial connectors (430) including two inner contacts separated by a dielectric and further adapted to be connected to respective complementary connectors and two pairs of shielded connection lines (104 and 104?). Each pair is connected to a twin axial connector (430). Further, a shielded USB bridge (100) connects the two pairs of connection lines (104 and 104?) to four cable terminations (106) to form a USB line (108). The bridge (100) is mounted in the base unit (400?) with the twin axial connectors (430) located in modified guide gins (441) that extend from the base unit.

Abstract: The invention relates to a coaxial connector (1) for mounting on a printed circuit board adapted to receive a mating coaxial connector in an insertion direction (I). The coaxial connector comprises a contact spring (8) having a fixed leg (16) and an deflectable switching leg (15). The switching leg (15) is moved by insertion of the mating connector from a rest position to a switching position. In rest position said switching leg electrically conductively presses against the switch portion (19) of the contact element (10). The spring force flux (F) is guided via a contact element (10) in a closed loop back to the contact spring (8). In switching position the switching leg (15) is spaced apart in an switching direction (D) from the switch portion (19) by the inserted mating connector.

Abstract: The invention relates to a Switch connector for mounting on a printed circuit board, adapted to receive a mating connector in an insertion direction along an insertion axis. The switch connector comprises a shield, a contact element, and a contact spring having at least one fixed leg, at least one elastically deflectable switching leg, and at least one spring bend, the fixed leg and the switching leg extending from the spring bend in a common direction and passing the insertion axis. The switching leg is adapted to be moved by insertion of the mating connector from a rest position, at which the switching leg exerts a spring force onto the contact element, to a switching position, at which the switching leg is spaced apart from the contact element, at least one spring force flux that in the rest position is generated by the switching leg and guided in a closed loop to the fixed leg. To increase the reliability of the switching function, the shield is arranged in the closed loop of the spring force flux.