Abstract: A family of connectors to accommodate a single twisted pair of conductors is disclosed herein. The family of connectors includes a free connector, a fixed connector, and an adapter; the free and/or fixed connectors can be modified to accommodate the adapter configuration and/or modified to accommodate various patch cord configurations. In certain embodiments, the one or more of the family of connectors adopts an LC fiber optic style connector configuration and an LC fiber optic footprint configuration. In certain examples, one or more of the family of connectors adopts an LC fiber optic style connector configuration but in a footprint that is larger or smaller than the footprint of the LC fiber optic footprint. Other configurations may also be adopted.

Abstract: A family of connectors to accommodate a single twisted pair of conductors is disclosed herein. The family of connectors includes a free connector, a fixed connector, and an adapter; the free and/or fixed connectors can be modified to accommodate the adapter configuration and/or modified to accommodate various patch cord configurations. In certain embodiments, the one or more of the family of connectors adopts an LC fiber optic style connector configuration and an LC fiber optic footprint configuration. In certain examples, one or more of the family of connectors adopts an LC fiber optic style connector configuration but in a footprint that is larger or smaller than the footprint of the LC fiber optic footprint. Other configurations may also be adopted.

Abstract: An inline cable connector assembly connects one or more twisted pairs of wire leads of a first cable to one or more twisted pairs of wire leads to a second cable. The assembly includes first and second terminal housing parts, first and second wiring caps, and double ended insulation displacement contacts within the connector assembly.

Abstract: A family of connectors includes a plug, receptacle and adapter with the plug incorporating beam contacts, and the receptacle and adapter incorporating interfacing arched beam contacts. A z-configuration of the port(s) within the receptacle and adapter is configured to interface with the plug, which also presents a z-configuration. The parallel, upper and lower portions of the z-configuration of the plug incorporate the beam contacts. The first beam contact of the plug is rotated 180 degrees from the second beam contact of the plug; the arched beam contacts are similarly rotated. The plug, receptacle and adapter of a small form factor that is similar or identical to the formal factor of an optical fiber LC connector. The plug and receptacle can be configured for circuit board, cable or patch cord mounting. The plug and receptacle can be utilized in a multi-plug/multi-receptacle configuration.

Abstract: A family of connectors to accommodate a single twisted pair of conductors is disclosed herein. The family of connectors includes a free connector, a fixed connector, and an adapter; the free and/or fixed connectors can be modified to accommodate the adapter configuration and/or modified to accommodate various patch cord configurations. In certain embodiments, the one or more of the family of connectors adopts an LC fiber optic style connector configuration and an LC fiber optic footprint configuration. In certain examples, one or more of the family of connectors adopts an LC fiber optic style connector configuration but in a footprint that is larger or smaller than the footprint of the LC fiber optic footprint. Other configurations may also be adopted.

Abstract: A family of connectors includes a plug, receptacle and adapter with the plug incorporating beam contacts, and the receptacle and adapter incorporating interfacing arched beam contacts. A z-configuration of the port(s) within the receptacle and adapter is configured to interface with the plug, which also presents a z-configuration. The parallel, upper and lower portions of the z-configuration of the plug incorporate the beam contacts. The first beam contact of the plug is rotated 180 degrees from the second beam contact of the plug; the arched beam contacts are similarly rotated. The plug, receptacle and adapter of a small form factor that is similar or identical to the formal factor of an optical fiber LC connector. The plug and receptacle can be configured for circuit board, cable or patch cord mounting. The plug and receptacle can be utilized in a multi-plug/multi-receptacle configuration.

Abstract: Flexible fingers for flexible printed circuits improve the crack resistance of prior art designs. The crack resistance can be improved by encapsulating the trace inside additional layers such that the outer two layers include only the lands of the through-hole, and all other copper is etched away. The crack resistance can also be improved with strategically adding copper on layers other than the trace layer including attaching is to the land of the through-hole as a stub. These two designs can be combined to include a stub trace into a four-layered design.

Abstract: Flexible fingers for flexible printed circuits improve the crack resistance of prior art designs. The crack resistance can be improved by encapsulating the trace inside additional layers such that the outer two layers include only the lands of the through-hole, and all other copper is etched away. The crack resistance can also be improved with strategically adding copper on layers other than the trace layer including attaching is to the land of the through-hole as a stub. These two designs can be combined to include a stub trace into a four-layered design.

Abstract: An inline cable connector assembly connects one or more twisted pairs of wire leads of a first cable to one or more twisted pairs of wire leads to a second cable. The assembly includes first and second terminal housing parts, first and second wiring caps, and double ended insulation displacement contacts within the connector assembly.

Abstract: A communication connector assembly that incorporates crosstalk compensation. A number of compensation coupling contacts, e.g., conductive pads, stiff wires or plates, are mounted on a front edge region of a wire board that supports a number of terminal contact wires. Compensation elements associated with the wire board are connected to the contacts and are selected to produce, e.g., capacitive crosstalk compensation coupling. The terminal contact wires have connecting portions for contacting corresponding terminals of a mating connector along a line of contact. Free ends of the contact wires, ahead of the line of contact, are formed to deflect toward the wire board and to connect with the compensation coupling contacts on the board when engaged by the mating connector. The compensation coupling is therefore effective at the line of contact with the mating connector. In the disclosed embodiments, the assembly is incorporated in a modular jack connector.

Abstract: Both differential mode-to-differential mode crosstalk compensation and differential-to-common (or common mode-to-differential mode) crosstalk compensation are realized by using a pattern of conductor crossovers in a multi-pair electrical connector dictated by the algorithm (a−b)n with n≧3, where n determines the number of compensating stages and the coefficients of the expanded algorithm in each stage. An electrical connector with a pattern of conductors fashioned with these constraints among several of the pairs of conductors.

Abstract: A modular plug is provided having a dielectric housing including a first end and a second end. The first end defines an electrical connector section having signal conductors arranged to mate with a modular jack. At least two substantially planar blades are positioned adjacent to one another in the first end such that a dielectric wall is positioned between the blades with an edge portion of each of the blades being electrically and mechanically accessible, wherein each of the blades is aligned with one of the signal conductors. A modular jack is provided that includes an insulating body having an interior cavity communicating with a modular plug receiving opening formed in a front end of the body for receiving a complementary modular plug. A plurality of openings in the body communicate with the cavity and are sized and shaped to each receive a jack contact. A plurality of jack contacts are mounted within the cavity.

Abstract: A communication connector assembly including a wire board, and a number of elongated terminal contact wires extending above a top surface of the board. The contact wires have free end portions for making electrical contact with a mating connector, and base portions formed opposite the free end portions for supporting the contact wires on the board and for connecting the wires to conductors on or within the board. The base portions project normal from the top surface of the board. Pairs of the contact wires are coupled to one another along a first coupling region between their free end portions and their base portions and horizontal with respect to the top surface of the wire board, so that crosstalk introduced by the mating connector of a given polarity, is reduced over the first coupling region.

Abstract: An enhanced communication connector assembly capable of meeting Category 6 performance levels with respect to near end crosstalk (NEXT), when the assembly is connected to a mating connector. The assembly includes a wire board, and a number of elongated terminal contact wires with base portions that are supported on the board. The contact wires have free end portions opposite the base portions for making electrical contact with a mating connector. A crosstalk compensating device on the wire board is constructed and arranged to cooperate with sections of selected terminal contact wires to provide capacitive compensation coupling between the selected terminal contact wires, when the contact wires are engaged by the mating connector.

Abstract: Capacitive crosstalk compensation coupling is achieved in a communication connector by the use of a capacitor compensation assembly. The assembly includes a housing constructed to be associated with a communication connector having elongated terminal contact wires. One or more crosstalk compensation capacitors are supported in the housing. Each compensation capacitor includes a first electrode having a first terminal, a second electrode having a second terminal, and a dielectric spacer is disposed between the first and the second electrodes. The terminals of the electrodes are exposed at positions outside of the housing so that selected terminal contact wires of the connector make electrical contact with corresponding terminals of the compensation capacitors to provide capacitive coupling between the selected contact wires when the contact wires are engaged by a mating connector.

Abstract: A communications connector assembly capable of meeting proposed Category 6 performance levels with respect to near end crosstalk. The assembly includes a wire board having a front portion, and a number of elongated terminal contact wires with base portions connected at one end to the board, and free end portions for electrically contacting a mating connector. The terminal contact wires extend parallel and co-planar with one another above the front portion of the board, and their free end portions project from the front portion of the board. The free end portions are configured to be deflected resiliently toward the board when the mating connector engages them in a direction parallel to the board. A crosstalk compensating device is associated with at least one of the terminal contact wires at a position where the wires are co-planar with one another.

Abstract: Disclosed is a device for reducing crosstalk in an electrical connector. The device includes an insulating board with a plurality of layers. A first plurality of pairs of conductive paths is formed on a surface of at least one layer, and a second plurality of pairs of conductive paths is vertically spaced therefrom. The paths are arranged so that at least one conductive path in the first plurality of pairs overlies at least two conductive paths from different pairs in the second plurality of pairs. The capacitive coupling between the paths results in crosstalk having a polarity opposite to that of the connector so as to compensate for the connector crosstalk.

Abstract: A connector block for electrically cross-connecting two sets of conductors. The connector block has a wiring block with a plurality of insulation displacement contacts for mating with a first set of TIP conductors and a second set of RING conductors. An index strip made from dielectric material, is provided for securing the TIP and RING conductors against their respective contacts, wherein the index strip includes a plurality of C-shaped metal clips which provide crosstalk compensation in the connector block thereby providing the connector block with a worst conductor pair to conductor pair near-end crosstalk loss @100 MHz of better than 55 dB.

Abstract: An electrical connector 60 achieves improved transmission performance by introducing predetermined amounts of compensation between two pairs of conductors that extend from its input terminals to its output terminals along interconnection paths. Electrical signals on one pair of conductors are coupled onto the other pair of conductors in two or more compensation stages that are time delayed with respect to each other. Illustratively, the electrical connector is a modular jack that is adapted to receive a modular plug 20. Associated with the modular plug and the input of the modular jack there exists a known amount of offending crosstalk A.sub.0, which is approximately canceled by the two or more stages of compensating crosstalk. In a first stage, compensating crosstalk A.sub.1 is introduced between the pairs, and it has a first predetermined magnitude and phase at a given frequency. In a second stage, compensating crosstalk A.sub.

Abstract: Disclosed is an electrical connector which compensates for near-end crosstalk at its mating section with near-end crosstalk of an opposite polarity and essentially equal magnitude. Conductive plates connected to the conductors provide capacitive coupling unbalance between the adjacent pairs to produce the necessary opposite polarity, equal magnitude near-end crosstalk.