Abstract: A connection module includes a module body and a module circuit board arrangement. The module body defines a first port and an open first end providing access to the first port. The module circuit board arrangement extends across the open first end within a peripheral boundary defined by the module body. The module circuit board arrangement includes at least a first contact set that extends into the first port of the module body; an electronic controller that is electrically connected to the first contact set; and a circuit board connector facing outwardly from the module board arrangement. Example connection modules include optical adapters and electrical jacks.

Abstract: An electrical connector includes a front wire terminal and a rear wire terminal. The front wire terminal and the rear wire terminal are configured to couple to a conductor of a cable. A front signal trace is coupled to the front wire terminal. A rear signal trace is coupled to the rear wire terminal. The front signal trace is positioned adjacent to the rear signal trace. A front mating contact is coupled to the front signal trace. A rear mating contact is coupled to the rear signal trace. The front signal trace conveys an electrical signal between the front wire terminal and the front mating contact. The rear signal trace conveys an electrical signal between the rear wire terminal and the rear mating contact. An electro-mechanical compensation is positioned between the front signal trace and the rear signal trace to control crosstalk between the front signal trace and the rear signal trace.

Abstract: A shield cap is mounted to an electrical connector for reducing crosstalk between adjoining electrical connectors. The shield cap includes a body portion and opposite shield plates. The body portion is configured to engage the electrical connector and is formed from a non-conductive material. The opposite shield plates are connected to opposite sides of the body portion and configured to at least partially cover one or more insulation displacement contacts exposed from the electrical connector. The electrical connector includes a wire termination conductor configured to be connected to a wire conductor of a cable. The wire termination conductor is at least partially coated with a shielding layer.

Abstract: Fiber optic connectors and adapters may be automatically secured and released via a management system. Such automation may inhibit accidental and/or unauthorized insertion of fiber optic connectors into adapter ports. The automation also may inhibit accidental and/or unauthorized removal of the fiber optic connectors from the adapter ports.

Abstract: An electrical plug connector terminates a twisted pair electrical cable. The electrical plug connector includes a base and a plug housing holding electrical contacts therebetween. The base includes a divider structure including separation walls. At least one of the separation walls defines an abutment surface against which a forward end of the electrical cable abuts when terminated by the electrical plug connector. The plug housing defines slots so that the electrical contacts are accessible. The electrical plug connector axially secures an outer jacket of the electrical cable against rearward movement relative to base. The at least one separation wall inhibits forward axial movement of the outer jacket of the electrical cable relative to the base.

Abstract: An electrical connector is provided. The connector includes a housing having a wire end and a mating end. A terminal array extends between the wire end and the mating end of the housing. The terminal array has second terminals and first terminals. Each of the second terminals and the first terminals has a wire contact positioned at the wire end of the housing and a mating contact positioned at the mating end of the housing. The wire contact of each second terminal is positioned closer to the wire end of the housing than the wire contact of each first terminal. The mating contacts of the second terminals are positioned adjacent the mating contacts of the first terminals.

Abstract: A fiber optic tap system includes a first receiver module having an input port configured to receive an optical fiber. The first receiver module is operable to convert a received optical signal to an electrical signal. A first transmitter module is coupled to receive the electrical signal from the first receiver module and convert the received electrical signal to an optical signal. The first transmitter module has an output port for outputting the optical signal. A first tap module is coupled to receive the electrical signal from the first receiver module.

Abstract: A connection module includes a module body and a module circuit board arrangement. The module body defines a first port and an open first end providing access to the first port. The module circuit board arrangement extends across the open first end within a peripheral boundary defined by the module body. The module circuit board arrangement includes at least a first contact set that extends into the first port of the module body; an electronic controller that is electrically connected to the first contact set; and a circuit board connector facing outwardly from the module board arrangement. Example connection modules include optical adapters and electrical jacks.

Abstract: A contact sub-assembly is provided for an electrical connector. The contact sub-assembly includes a printed circuit and an array of mating contacts. Each mating contact includes a terminating end portion and a mating interface. The contact sub-assembly also includes an array of circuit contacts that is discrete from the array of mating contacts. Each circuit contact is engaged with and electrically connected to the printed circuit. Each circuit contact is separably engaged with and electrically connected to the terminating end portion of a corresponding one of the mating contacts such that the array of circuit contacts electrically connects the array of mating contacts to the printed circuit.

Abstract: The present invention relates to a release tab (37) for an electrical connector (1), comprising a body (38) and an unlocking nose (42) for unlatching a latch (13) securing the electrical connector (1) connected with a mating connector (2), as well as to an electrical connector (1) comprising a housing (4), a latch (13) for securing the housing (4) to a mating connector (2), the latch (13) extending from the housing (4), having an opening (19), as well as being transferable to an unlatched position, and a release tab (37) being arranged movable between a released position and an actuated position, and having an unlocking nose (42) extending into the opening (19) to transfer the latch (13) to the unlatched position when moving the release tab (37) from the released position to the actuated position.

Abstract: Electrical connector including a plurality of mating conductors. Each of the mating conductors extends between an engagement portion and an interior portion. The engagement portions of the mating conductors are configured to engage contacts of the mating connector. The engagement portions are located proximate to one another at a first nodal region. The interior portions are located proximate to one another at a second nodal region. The electrical connector also includes a first open-ended conductor electrically connected to the engagement portion of a first mating conductor of the plurality of mating conductors and extending from the first nodal region. The electrical connector also includes a second open-ended conductor electrically connected to the interior portion of a second mating conductor of the plurality of mating conductors and extending from the second nodal region. The first open-ended conductor is capacitively coupled to the second open-ended conductor.

Abstract: The present disclosure relates to systems and methods for optically connecting circuit elements and optical fiber systems. In one embodiment, an optical waveguide module includes an optical light guide having opposite first and second planar surfaces extending between a first side edge and a second side edge. The optical light guide can be configured with a substrate supporting one or more optical pathways extending between the first and second side edges. The waveguide module can further include one or more first and second edge connectors, each of which has an adapter port and a first alignment slot opposite the adapter port. The alignment slots extend over the first and second planar surfaces at the first and second side edges to align the adapter ports with the one or more optical pathways in a first direction.

Abstract: An electrical connector includes a front wire terminal and a rear wire terminal. The front wire terminal and the rear wire terminal are configured to couple to a conductor of a cable. A front signal trace is coupled to the front wire terminal. A rear signal trace is coupled to the rear wire terminal. The front signal trace is positioned adjacent to the rear signal trace. A front mating contact is coupled to the front signal trace. A rear mating contact is coupled to the rear signal trace. The front signal trace conveys an electrical signal between the front wire terminal and the front mating contact. The rear signal trace conveys an electrical signal between the rear wire terminal and the rear mating contact. An electro-mechanical compensation is positioned between the front signal trace and the rear signal trace to control crosstalk between the front signal trace and the rear signal trace.

Abstract: Fiber optic connectors and adapters may be automatically secured and released via a management system. Such automation may inhibit accidental and/or unauthorized insertion of fiber optic connectors into adapter ports. The automation also may inhibit accidental and/or unauthorized removal of the fiber optic connectors from the adapter ports.

Abstract: The present disclosure relates to systems and methods for optically connecting circuit elements and optical fiber systems. In one embodiment, an optical waveguide module includes an optical light guide having opposite first and second planar surfaces extending between a first side edge and a second side edge. The optical light guide can be configured with a substrate supporting one or more optical pathways extending between the first and second side edges. The waveguide module can further include one or more first and second edge connectors, each of which has an adapter port and a first alignment slot opposite the adapter port. The alignment slots extend over the first and second planar surfaces at the first and second side edges to align the adapter ports with the one or more optical pathways in a first direction.

Abstract: A shield cap is mounted to an electrical connector for reducing crosstalk between adjoining electrical connectors. The shield cap includes a body portion and opposite shield plates. The body portion is configured to engage the electrical connector and is formed from a non-conductive material. The opposite shield plates are connected to opposite sides of the body portion and configured to at least partially cover one or more insulation displacement contacts exposed from the electrical connector. The electrical connector includes a wire termination conductor configured to be connected to a wire conductor of a cable. The wire termination conductor is at least partially coated with a shielding layer.

Abstract: The present invention relates to a release tab (37) for an electrical connector (1), comprising a body (38) and an unlocking nose (42) for unlatching a latch (13) securing the electrical connector (1) connected with a mating connector (2), as well as to an electrical connector (1) comprising a housing (4), a latch (13) for securing the housing (4) to a mating connector (2), the latch (13) extending from the housing (4), having an opening (19), as well as being transferable to an unlatched position, and a release tab (37) being arranged movable between a released position and an actuated position, and having an unlocking nose (42) extending into the opening (19) to transfer the latch (13) to the unlatched position when moving the release tab (37) from the released position to the actuated position.

Abstract: A contact sub-assembly is provided for an electrical connector. The contact sub-assembly includes a printed circuit and an array of mating contacts. Each mating contact includes a terminating end portion and a mating interface. The contact sub-assembly also includes an array of circuit contacts that is discrete from the array of mating contacts. Each circuit contact is engaged with and electrically connected to the printed circuit. Each circuit contact is separably engaged with and electrically connected to the terminating end portion of a corresponding one of the mating contacts such that the array of circuit contacts electrically connects the array of mating contacts to the printed circuit.

Abstract: A passive optical fiber switch includes: a housing defining a plurality of ports configured to receive fiber optic connectors; a substrate positioned within the housing, the substrate defining a plurality of waveguide paths; and an arm positioned relative to one of the plurality of ports such that the arm moves as a fiber optic connector is positioned in the one port, movement of the arm causing the waveguide paths to shift to break a normal through configuration.

Abstract: The present invention relates to a release tab (37) for an electrical connector (1), comprising a body (38) and an unlocking nose (42) for unlatching a latch (13) securing the electrical connector (1) connected with a mating connector (2), as well as to an electrical connector (1) comprising a housing (4), a latch (13) for securing the housing (4) to a mating connector (2), the latch (13) extending from the housing (4), having an opening (19), as well as being transferable to an unlatched position, and a release tab (37) being arranged movable between a released position and an actuated position, and having an unlocking nose (42) extending into the opening (19) to transfer the latch (13) to the unlatched position when moving the release tab (37) from the released position to the actuated position.