Abstract: A cable backplane system includes a tray having a frame with side walls surrounding a raceway. The side walls extend to a front edge of the frame. The tray includes spacers coupled to the tray located proximate to the front edge. Cable connectors are held by corresponding spacers in position relative to the backplane. The cable backplane system includes an electromagnetic radiation (EMR) absorber extending along an opening in the tray to suppress the propagation of EMR into or out of the tray.

Abstract: Backplane communication system including a backplane and a rack assembly having an array of electrical connectors with respective mating ends. The backplane communication system also includes a plurality of guide pins that each have a cross-sectional diameter taken transverse to an axis of the guide pin. The backplane interfaces with the rack assembly such that the guide pins extend through guide holes of the backplane and the electrical connectors are aligned with mating windows. Each of the guide pins has a leading segment that extends through the corresponding guide hole and a trailing segment that is disposed within the corresponding guide hole. The cross-sectional diameter along the trailing segment is greater than the cross-sectional diameter along the leading segment.

Abstract: Mounting assembly for a backplane communication system. The mounting assembly includes a retention collet that has a collet base and a coupling arm that extends from the collet base. The collet base includes a passage therethrough. The collet base is configured to be mounted to a backplane such that the passage extends through the backplane and the coupling arm extends from the collet base away from the backplane. The mounting assembly also includes a spacer member having a member cavity that receives the coupling arm when the spacer member is mounted to the backplane. The coupling arm is held in a locked position when engaged by a guide pin that has been inserted through the passage of the collet base and into the member cavity. The retention collet and the spacer member are interlocked when the coupling arm is in the locked position.

Abstract: A cable backplane system includes a backplane having connector openings receiving corresponding cable connectors therein and a cable tray coupled to the backplane. The cable tray has side walls surrounding a cavity defining a raceway for cables interconnecting corresponding cable connectors. A cable connector grid frame supports the cable connectors and the cable connector grid frame is loaded into the cable tray to position the cable connectors and corresponding cables in the cable tray as a unit. The cable connector grid frame includes side rails and center rails held between the side rails and forming a grid of cable connector openings between the side rails and center rails. The cable connector openings receive corresponding headers of the cable connectors and hold the positions of the headers relative to one another.

Abstract: A cable backplane system includes cable connectors having cables extending therefrom. Each cable connector has a header holding signal contacts at a mating end of the header configured for mating with a card connector. The cable backplane system includes a cable tray having side walls surrounding a cavity defining a raceway for the cables. The cable tray has a front edge. A plurality of connector bricks are received in the cable tray. The connector bricks each having a header frame comprising end spacers and side spacers defining a header opening receiving a plurality of the cable connectors. The end walls hold the headers of corresponding cable connectors. The side spacers have guide paddles extending from a front of the side spacers forward of the cable connectors.

Abstract: A cable backplane system includes a plurality of cable connectors interconnected by cables, each cable connector having a header holding signal contacts at a mating end of the header configured for mating with a card connector. A cable tray having side walls surrounds a cavity defining a raceway for the cables. The cable tray has a front edge and holds header frames between the side walls. The header frames hold headers of corresponding cable connectors. An organizer plate is coupled to the cable tray at the front edge. The organizer plate has a plurality of connector channels receiving mating ends of corresponding headers. The connector channels hold the headers in position relative to one another.

Abstract: An optical communication connector having a connector housing that includes opposite mating and loading sides and a housing cavity that extends therebetween. The optical communication connector also includes an optical module that is positioned within the housing cavity and a biasing element that is positioned between the optical module and the loading side in the housing cavity. The biasing element has a module end, a back end, and a resilient spring portion that extends between the module and back ends. The spring portion includes an elongated body having a plurality of flexible bend segments that wrap back-and-forth within a spring plane. The spring portion is compressible between first and second states during a mating operation between the optical module and an optical connector.

Abstract: A cable backplane system includes a tray having a frame with side walls surrounding a raceway. The side walls extend to a front edge of the frame. The tray includes spacers coupled to the tray located proximate to the front edge. Cable connectors are held by corresponding spacers in position relative to the backplane. The cable backplane system includes an electromagnetic radiation (EMR) absorber extending along an opening in the tray to suppress the propagation of EMR into or out of the tray.

Abstract: A cable assembly for a cable backplane system includes a tray having a frame and spacer assemblies coupled to the frame that hold cable tray connectors in fixed positions relative to the frame. Each cable tray connector has a housing holding a plurality of contacts and cables extending rearward from the corresponding housing. The housings are configured to be received in corresponding openings in a backplane of the cable backplane system. A flexible cable harness extends from the tray. The flexible cable harness has a flexible shield electrically coupled to the frame and a harness connector electrically connected to at least one corresponding cable tray connector. At least some of the cables are routed from the tray through the flexible shield to the harness connector. The flexible shield provides electrical shielding for the cables. The harness connector is variably positionable relative to the tray.

Abstract: A cable connector assembly including a cable connector having a mating side that faces in a mating direction. The mating side is configured to engage a mating connector. The cable connector assembly also includes a housing frame having a connector-receiving space that is partially defined by a sidewall. The cable connector is disposed in the connector-receiving space. The sidewall has a wall spring that is formed from material of the sidewall and that is coupled to the cable connector. The wall spring is configured to resiliently flex from a relaxed condition to a compressed condition to permit the cable connector to move during a mating operation. The wall spring provides a biasing force to the cable connector in the mating direction when the wall spring is in the compressed condition.

Abstract: A cable connector assembly including a cable connector having a mating side that faces in a mating direction. The mating side is configured to engage a mating connector. The cable connector assembly also includes a housing frame having a connector-receiving space that is partially defined by a sidewall. The cable connector is disposed in the connector-receiving space. The sidewall has a wall spring that is formed from material of the sidewall and that is coupled to the cable connector. The wall spring is configured to resiliently flex from a relaxed condition to a compressed condition to permit the cable connector to move during a mating operation. The wall spring provides a biasing force to the cable connector in the mating direction when the wall spring is in the compressed condition.

Abstract: A cable backplane system includes a backplane having a plurality of openings and mounting blocks proximate the openings. A cable rack is coupled to a rear of the backplane that includes a tray, spacers coupled to the tray and cable connector assemblies held by corresponding spacers. Each cable connector assembly has a plurality of cables extending between cable connectors. The cable connectors are received in corresponding openings and held in position relative to the backplane by the spacers. Locking assemblies are held by the tray and have a latch proximate to a front edge of the tray configured to interact with a corresponding one of the mounting blocks to lockably couple the tray to the backplane. The locking assemblies each have an actuator at a rear of the tray that is actuated by an installer to lock and unlock the latch with the mounting block.

Abstract: A receptacle connector including a receptacle housing having a housing cavity that is configured to receive a plug connector. The housing cavity is defined by an interior sidewall that extends along the mating axis and has a guide track thereon. The receptacle connector also includes a communication component that is disposed within the housing cavity and configured to communicatively engage the plug connector. The receptacle connector also includes a coupling member that is disposed within the housing cavity and is configured to engage the plug connector. The coupling member is movable bi-directionally along a mating axis and has a latch element that is slidably engaged to the guide track of the sidewall. The guide track forces the latch element toward the plug connector as the coupling member moves along the mating axis. The latch element capturing the plug connector in a locked position.

Abstract: A daughter card assembly including a printed circuit board that defines a board plane and has a mating edge, a trailing edge, and a side edge that extends between the mating and trailing edges. The mating edge extends lengthwise along a longitudinal axis and has electrical contacts positioned therealong. The mating edge is configured to engage a card connector when the mating edge is moved in an insertion direction that is substantially perpendicular to the longitudinal axis. The daughter card assembly also includes a latching sub-assembly that is coupled to the circuit board and extends along the side edge. The latching sub-assembly includes a coupling arm that extends in the insertion direction and has a latch end that is proximate to the mating edge. The latch end is configured to removably couple to the card connector.

Abstract: A daughter card assembly including a printed circuit board that defines a board plane and has a mating edge, a trailing edge, and a side edge that extends between the mating and trailing edges. The mating edge extends lengthwise along a longitudinal axis and has electrical contacts positioned therealong. The mating edge is configured to engage a card connector when the mating edge is moved in an insertion direction that is substantially perpendicular to the longitudinal axis. The daughter card assembly also includes a latching sub-assembly that is coupled to the circuit board and extends along the side edge. The latching sub-assembly includes a coupling arm that extends in the insertion direction and has a latch end that is proximate to the mating edge. The latch end is configured to removably couple to the card connector.

Abstract: An optical communication connector having a connector housing that includes opposite mating and loading sides and a housing cavity that extends therebetween. The optical communication connector also includes an optical module that is positioned within the housing cavity and a biasing element that is positioned between the optical module and the loading side in the housing cavity. The biasing element has a module end, a back end, and a resilient spring portion that extends between the module and back ends. The spring portion includes an elongated body having a plurality of flexible bend segments that wrap back-and-forth within a spring plane. The spring portion is compressible between first and second states during a mating operation between the optical module and an optical connector.

Abstract: A receptacle connector including a receptacle housing having a housing cavity that is configured to receive a plug connector. The housing cavity is defined by an interior sidewall that extends along the mating axis and has a guide track thereon. The receptacle connector also includes a communication component that is disposed within the housing cavity and configured to communicatively engage the plug connector. The receptacle connector also includes a coupling member that is disposed within the housing cavity and is configured to engage the plug connector. The coupling member is movable bi-directionally along a mating axis and has a latch element that is slidably engaged to the guide track of the sidewall. The guide track forces the latch element toward the plug connector as the coupling member moves along the mating axis. The latch element capturing the plug connector in a locked position.

Abstract: A crimp contact including a first component that has opposite leading and trailing ends and a central axis that extends therebetween. The first component has a component wall that includes an interior surface and a wall edge. The interior surface defines a contact passage that extends along the central axis. The wall edge defines a passage opening at the trailing end. The crimp contact also includes a second component coupled to the first component. The second component includes a sheet wall that has body and sleeve portions joined together along a wall joint. The body portion is located within the contact passage and extends about the central axis to define a crimping cavity. The sleeve portion is folded over the body portion at the wall joint so that the sleeve and body portions define a radial gap therebetween. The component wall is located within the radial gap.

Abstract: A crimp contact including a first component that has opposite leading and trailing ends and a central axis that extends therebetween. The first component has a component wall that includes an interior surface and a wall edge. The interior surface defines a contact passage that extends along the central axis. The wall edge defines a passage opening at the trailing end. The crimp contact also includes a second component coupled to the first component. The second component includes a sheet wall that has body and sleeve portions joined together along a wall joint. The body portion is located within the contact passage and extends about the central axis to define a crimping cavity. The sleeve portion is folded over the body portion at the wall joint so that the sleeve and body portions define a radial gap therebetween. The component wall is located within the radial gap.

Abstract: An electrical connector is provided for terminating an electrical cable having an insulated conductor surrounded by a ground shield. The electrical connector includes a housing, an electrical contact held by the housing, an inner ferrule configured to extend between the ground shield and the insulated conductor of the electrical cable, and an outer ferrule extending around the inner ferrule such that the ground shield of the electrical cable extends between the inner and outer ferrules when the electrical connector terminates the electrical cable. A rear cover is connected to the housing. The rear cover extends around and compresses the outer ferrule such that the ground shield of the electrical cable is captured between the inner and outer ferrules when the electrical connector terminates the electrical cable.