Abstract: An electrical connector includes a housing and a plurality of contacts within the housing that are configured to engage with mating contacts of a mating connector. The contacts form at least a first differential pair and a second differential pair. The electrical connector also includes a circuit board housed within the housing. The circuit board has a substrate body formed from a dielectric material and includes a first trace electrically coupled to a contact of the first differential pair and a second trace electrically coupled to a contact of the second differential pair. At least one of the first and second traces is an open-ended trace. The circuit board also has a non-ohmic plate that is positioned adjacent to the traces. The plate is positioned to electromagnetically couple the first and second traces to each other and the non-ohmic plate and traces are configured for a desired electrical performance.

Abstract: A electrical connector includes a housing and a plurality of contacts within the housing configured for mating engagement with mating contacts of a mating connector. The electrical connector also includes a compensation component housed within the housing. The compensation component has a substrate with a first trace plane and a second trace plane, and the compensation component has a plurality of traces arranged on the first trace plane. The traces are electrically connected to selected ones of the contacts. At least one of the traces includes a compensation loop arranged on the first trace plane, and at least one of the traces includes a compensation loop arranged on the second trace plane. The compensation loop provides at least one of electrical and thermal compensation.

Abstract: An electrical connector includes a housing and a plurality of electrical mating contacts held within the housing. Each of the mating contacts extends from a first end portion to a second end portion. Each of the mating contacts has an intermediate portion extending between the first and second end portions. An electrical compensation component is held within the housing. The electrical compensation component includes a circuit board. The electrical compensation component is electrically connected to at least one of the mating contacts at a location along the intermediate portion that is spaced a distance from the first and second end portions.

Abstract: A receptacle assembly comprises a housing having front and rear ends. The front end receives a plug and the rear end accepts wire termination contacts. A circuit board has a plurality of contact holes and is held within the housing. A plurality of array contacts is arranged in a contact array within the housing. Each of the plurality of array contacts comprises a main section and a contact tail. The main section runs generally perpendicular to the circuit board. The contact tail has a first bend forming a first tail sub-section extending parallel to the circuit board and a second bend forming a second tail sub-section extending perpendicular to the circuit board. The second tail sub-section of each of the plurality of array contacts is received by one of the plurality of contact holes in the circuit board.

Abstract: An electrical connector includes a housing and a plurality of contacts within the housing that are configured to engage with mating contacts of a mating connector. The contacts form at least a first differential pair and a second differential pair. The electrical connector also includes a circuit board housed within the housing. The circuit board has a substrate body formed from a dielectric material and includes a first trace electrically coupled to a contact of the first differential pair and a second trace electrically coupled to a contact of the second differential pair. At least one of the first and second traces is an open-ended trace. The circuit board also has a non-ohmic plate that is positioned adjacent to the traces. The plate is positioned to electromagnetically couple the first and second traces to each other and the non-ohmic plate and traces are configured for a desired electrical performance.

Abstract: A electrical connector includes a housing and a plurality of contacts within the housing configured for mating engagement with mating contacts of a mating connector. The electrical connector also includes a compensation component housed within the housing. The compensation component has a substrate with a first trace plane and a second trace plane, and the compensation component has a plurality of traces arranged on the first trace plane. The traces are electrically connected to selected ones of the contacts. At least one of the traces includes a compensation loop arranged on the first trace plane, and at least one of the traces includes a compensation loop arranged on the second trace plane. The compensation loop provides at least one of electrical and thermal compensation.

Abstract: An interface module includes a housing configured to hold at least one modular jack. The housing is configured to be mounted on a panel. The housing includes an electrically conductive portion. An electrically conductive fastener has a housing interface configured to engage the electrically conductive portion of the housing and a panel interface configured to engage an electrically conductive surface of the panel. The electrically conductive fastener creates an electrical connection between the housing and the panel.

Abstract: An electrical connector includes a back end sub-assembly including a back end housing extending along a longitudinal axis between a forward side and a rearward side. The back end housing defining a plurality of contact zones. At least one contact is held in each of the plurality of contact zones. A shield is provided within each of the plurality of contact zones with each shield at least partially surrounding at least one contact in the corresponding contact zone. Each shield is non-common with and does not electrically engage any other shield in the back end housing.

Abstract: A coupler includes a coupler body having a first mating end defining a first mating interface configured for mating with a first mating connector and a second mating end defining a second mating interface configured for mating with a second mating connector. A contact sub-assembly is received within the coupler body, wherein the contact sub-assembly has first contacts grouped in differential pairs and presented at the first mating end and second contacts grouped in differential pairs and presented at the second mating end. At least one shielding member is located within the coupler body, wherein the at least one shielding member isolates each differential pair of first contacts from an adjacent differential pair of the first contacts.

Abstract: A coupler includes a coupler body having a first mating end defining a first mating interface configured for mating with a first mating connector and a second mating end defining a second mating interface configured for mating with a second mating connector. A contact sub-assembly is received within the coupler body, wherein the contact sub-assembly has first contacts grouped in differential pairs and presented at the first mating end and second contacts grouped in differential pairs and presented at the second mating end. At least one shielding member is located within the coupler body, wherein the at least one shielding member isolates each differential pair of first contacts from an adjacent differential pair of the first contacts.

Abstract: A jack assembly is provided and includes a jack housing and a contact sub-assembly joined to a rear end of the housing. The contact sub-assembly includes a plurality of conductor channels that each hold an insulation displacement contact (IDC) therein. The jack assembly also includes a connector cap that is mounted to the jack housing and is formed from a non-conductive material having conductive particles dispersed therein. The connector cap has a body arranged to at least partially cover the contact sub-assembly. The body has an inner surface and a plurality of crosswalls projecting outwardly from the inner surface. Each crosswall has a gap and is positioned to be inserted into one of the plurality of conductor channels such that the IDC fits within the gap.

Abstract: A jack assembly is provided and includes a jack housing and a contact sub-assembly joined to a rear end of the housing. The contact sub-assembly includes a plurality of conductor channels that each hold an insulation displacement contact (IDC) therein. The jack assembly also includes a connector cap that is mounted to the jack housing and is formed from a non-conductive material having conductive particles dispersed therein. The connector cap has a body arranged to at least partially cover the contact sub-assembly. The body has an inner surface and a plurality of crosswalls projecting outwardly from the inner surface. Each crosswall has a gap and is positioned to be inserted into one of the plurality of conductor channels such that the IDC fits within the gap.

Abstract: A cable network system includes a distribution assembly having a plurality of visual indicators mounted thereto, and a jack assembly removably coupled to the distribution assembly. The jack assembly has a plurality of jacks configured to receive cables of the cable network system therein. The visual indicators provide an indication of a status of a respective one of the jacks, and the jack assembly is removable from the distribution assembly while the visual indicators remain mounted to the distribution assembly.

Abstract: A cable management system for an electrical component having a connectivity interface configured to connect with cables includes a cable support bracket having a cable support plate configured to support the cables connected to the connectivity interface, and an arm having first and second arm portions. The first arm portion being coupled to the cable support plate and the second arm portion configured to be coupled to the electrical component. The first and second arm portions are selectively positionable with respect to one another such that the position of the cable support plate may be changed with respect to the connectivity interface.

Abstract: A cable management system includes a patch panel having a rear connectivity interface configured to connect with cables, and a cable support bracket. The cable support bracket includes a cable support plate configured to support the cables connected to the rear connectivity interface, an arm extending from the cable support plate, and a bias mechanism. The arm includes at least one arm portion mounted to the patch panel and a locking finger movable with respect to the arm portion. The bias mechanism operatively engages the arm portion and the locking finger and is configured to move the locking finger between a biased position and a released position.

Abstract: An electrical connector includes a dielectric housing having a cavity configured to receive a mating connector therein and a contact subassembly having an array of contacts. Each of the contacts define a mating interface configured to engage the mating connector, and each of the contacts have a beam portion extending downstream of the mating interface to a contact terminating end. Contact plates are arranged within the cavity, such that each of the contact plates engage a corresponding one of the contacts at the beam portion of the contacts.

Abstract: A connector includes a housing having a mating end, a wire receiving end and a longitudinal axis therethrough. The housing holds a plurality of contacts grouped in pairs and arranged about the axis. At least one shielding member is located within the housing. The at least one shielding member isolates each contact pair from an adjacent contact pair. An organizer is configured for attachment to the wire receiving end of the housing. The organizer defines a central opening that receives a plurality of signal wires. The organizer includes a plurality of wire guides arranged about the central opening. Each wire guide receives one of the signal wires.

Abstract: An interface module includes a housing having a plurality of jack openings configured to receive shielded modular jacks therein. The housing has a mounting wall extending along one side of the jack openings. A bond bar is coupled to the mounting wall, wherein the bond bar has a jack interface configured to engage respective ones of the shielded modular jacks and a panel interface configured to engage a mating surface of a panel. The bond bar is configured to create an electrical connection between respective ones of the shielded modular jacks and the mating surface of the panel.

Abstract: An electrical connector includes a dielectric housing having a mating end and a cavity extending from the mating end. The cavity is configured to receive a mating connector through the mating end. The electrical connector also includes a contact sub-assembly having an array of contacts. The contact sub-assembly is received in the housing such that each of the contacts are exposed within the cavity to engage the mating connector. Each of the contacts have a beam portion and a tail portion, and each tail portion includes a base section joined to a leg at a bend. The legs extend downward from the mating interfaces in a staggered pattern to form first and second sets of legs aligned in different first and second planes.

Abstract: A yoke member is provided for selective insertion into a passage of a first-half housing portion of a connector interface assembly, wherein the first-half housing portion is selectively matable with a complementary second-half housing portion. The yoke member includes a base wall; a pair of side walls; and an intermediate wall disposed between the side walls. The base wall, the pair of side walls and the intermediate wall define a pair of channels. A fiber optic connector is selectively positionable within each channel of the yoke member.