Abstract: A contact includes a cantilever beam and a protection tab. The cantilever beam extends from a beam connected end to a beam free end along an insertion direction. The protection tab extends from a tab connected end to a tab free end in a direction opposite to the insertion direction. The tab free end is positioned adjacent to the beam free end.

Abstract: An antenna assembly includes an antenna carrier having a cylindrical body with a side wall extending between a top and a bottom and extensions extending from the side wall at the bottom at different radial positions. An antenna is coupled to the body having a film supporting first and second antenna elements having first and second feed lines and first and second antenna lines. The feed lines extend along corresponding extensions and the antenna lines wrap helically around the side wall. The antenna assembly includes clip terminals coupled to the extensions being electrically coupled to corresponding feed lines. The clip terminals have terminating ends configured to be electrically terminated to host conductors.

Abstract: A connector assembly which controls impedance. The connector assembly includes a first metallic outer housing and a second metallic outer housing. The second metallic housing has a conductor receiving portion. A rib is formed in the conductor receiving portion, the rib extends in a direction which is parallel to a longitudinal axis of the second metallic outer shell. A terminal positioned in the connector assembly has a conductor receiving section and a mating terminal receiving section. The mating terminal receiving section has a lead-in portion and securing projections. At least one longitudinally extending opening is positioned about the circumference of the mating terminal receiving section, the opening reduces the cross section of the terminal. The opening provides impedance tuning to allow for a defined pitch of the terminal to be maintained without an impedance drop because of the close proximity of the terminal to an adjacent terminal.

Abstract: A connector for controlling impedance for use in a connector assembly, the connector has a housing made of dielectric material. The housing has a first conductor receiving opening and a second conductor receiving opening which are dimensioned to receive exposed conductors of a cable. The first conductor receiving opening and the second conductor receiving opening have conductor receiving portions, the conductor receiving portions extending at an angle relative to a longitudinal axis of the housing. The first conductor receiving opening and the second conductor receiving opening have conductor spacing portions which extend from the conductor receiving opening. The conductor spacing portions extend in a direction which is essentially parallel to the longitudinal axis of the housing. The spacing portions are spaced apart by a distance. The dielectric material and the distance the spacing portions are spaced apart being selected to match the impedance of the cable.

Abstract: A connector for controlling impedance for use in a connector assembly, the connector has a housing made of dielectric material. The housing has a first conductor receiving opening and a second conductor receiving opening which are dimensioned to receive exposed conductors of a cable. The first conductor receiving opening and the second conductor receiving opening have conductor receiving portions, the conductor receiving portions extending at an angle relative to a longitudinal axis of the housing. The first conductor receiving opening and the second conductor receiving opening have conductor spacing portions which extend from the conductor receiving opening. The conductor spacing portions extend in a direction which is essentially parallel to the longitudinal axis of the housing. The spacing portions are spaced apart by a distance. The dielectric material and the distance the spacing portions are spaced apart being selected to match the impedance of the cable.

Abstract: A connector assembly which controls impedance. The connector assembly includes a first metallic outer housing and a second metallic outer housing. The second metallic housing has a conductor receiving portion. A rib is formed in the conductor receiving portion, the rib extends in a direction which is parallel to a longitudinal axis of the second metallic outer shell. A terminal positioned in the connector assembly has a conductor receiving section and a mating terminal receiving section. The mating terminal receiving section has a lead-in portion and securing projections. At least one longitudinally extending opening is positioned about the circumference of the mating terminal receiving section, the opening reduces the cross section of the terminal. The opening provides impedance tuning to allow for a defined pitch of the terminal to be maintained without an impedance drop because of the close proximity of the terminal to an adjacent terminal.

Abstract: A dielectric member for controlling impedance for use in an electrical connector. The dielectric member including a housing made of dielectric material and a dielectric rib. The dielectric rib extends from a conductor receiving end of the housing in a direction away from a mating end. The rib is spaced equidistant from each of the conductor receiving openings. The rib extends in a direction which is essentially parallel to a longitudinal axis of the housing. Conductor engaging surfaces are provided on the rib, with a first conductor engaging surface of the conductor engaging surfaces being opposed to a second conductor engaging surface of the conductor engaging surfaces. The first conductor engaging surface and the second conductor engaging surface are spaced apart a distance, wherein the impedance of the conductors proximate the rib is approximately the same as the impedance of the cable.

Abstract: A cable assembly and method for terminating an end of a cable. The cable assembly includes a ferrule secured to a cable jacket at the end of the cable. The cable also has a braided shield which extends from the end of the cable to the portion of the inner connector positioned in the ferrule. A transition zone is provided between the end of the cable and an end of a portion of an inner connector positioned in the ferrule. A braid positioning clip engages the braided shield in the transition zone to maintain a relationship of the braided shield to the signal conductors to minimize the degradation of the electrical performance of the cable.

Abstract: A dielectric member for controlling impedance for use in an electrical connector. The dielectric member including a housing made of dielectric material and a dielectric rib. The dielectric rib extends from a conductor receiving end of the housing in a direction away from a mating end. The rib is spaced equidistant from each of the conductor receiving openings. The rib extends in a direction which is essentially parallel to a longitudinal axis of the housing. Conductor engaging surfaces are provided on the rib, with a first conductor engaging surface of the conductor engaging surfaces being opposed to a second conductor engaging surface of the conductor engaging surfaces. The first conductor engaging surface and the second conductor engaging surface are spaced apart a distance, wherein the impedance of the conductors proximate the rib is approximately the same as the impedance of the cable.

Abstract: A cable assembly and method for terminating an end of a cable. The cable assembly includes a ferrule secured to a cable jacket at the end of the cable. The cable also has a braided shield which extends from the end of the cable to the portion of the inner connector positioned in the ferrule. A transition zone is provided between the end of the cable and an end of a portion of an inner connector positioned in the ferrule. A braid positioning clip engages the braided shield in the transition zone to maintain a relationship of the braided shield to the signal conductors to minimize the degradation of the electrical performance of the cable.

Abstract: A cable assembly for terminating a cable. The cable assembly includes a cable assembly mating end and a cable assembly cable receiving end. A metallic outer shell is positioned proximate to the cable assembly mating end of the cable assembly. The metallic outer shell has a mating contact engagement portion. A housing made of dielectric material is positioned in the metallic outer shell. Resilient contact arms are provided on the mating contact engagement portion of the metallic outer shell. The resilient contact arms extend from proximate the cable assembly mating end. Front ends of the resilient contact arms are provided proximate the cable assembly mating end and cooperate with a protection portion of the cable assembly which extends from the cable assembly mating end to prevent the front ends of the resilient contact arms from stubbing when the cable assembly is mated to a mating assembly.

Abstract: An antenna assembly includes an antenna carrier having a cylindrical body with a side wall extending between a top and a bottom and extensions extending from the side wall at the bottom at different radial positions. An antenna is coupled to the body having a film supporting first and second antenna elements having first and second feed lines and first and second antenna lines. The feed lines extend along corresponding extensions and the antenna lines wrap helically around the side wall. The antenna assembly includes clip terminals coupled to the extensions being electrically coupled to corresponding feed lines. The clip terminals have terminating ends configured to be electrically terminated to host conductors.

Abstract: A receptacle assembly includes a front housing configured for mating with a header assembly and a contact module coupled to the front housing. The contact module includes a conductive holder having a first side wall and an opposite second side wall. The conductive holder has a chamber between the first and second side walls. The conductive holder has a front coupled to the front housing. The contact module includes a frame assembly that is received in the chamber. The frame assembly includes a plurality of contacts and a dielectric frame that supports the contacts. The contacts extend from the conductive holder for electrical termination. A plurality of ground clips are received in the chamber and extend from the front of the conductive holder. The ground clips are mechanically and electrically connected to the conductive holder.

Abstract: A receptacle assembly includes a front housing configured for mating with a header assembly and a contact module coupled to the front housing. The contact module includes a conductive holder having a first side wall and an opposite second side wall. The conductive holder has a chamber between the first and second side walls. The conductive holder has a front coupled to the front housing. The contact module includes a frame assembly that is received in the chamber. The frame assembly includes a plurality of contacts and a dielectric frame that supports the contacts. The contacts extend from the conductive holder for electrical termination. A plurality of ground clips are received in the chamber and extend from the front of the conductive holder. The ground clips are mechanically and electrically connected to the conductive holder.

Abstract: A receptacle assembly includes a contact module that includes a conductive holder and a frame assembly received in the conductive holder. The frame assembly includes a plurality of contacts and a dielectric frame supporting the contacts and disposed between the conductive holder and the contacts. The contacts extend from the conductive holder for electrical termination. A front housing receives the contact module therein. The front housing has a plurality of clip supports at a rear of the front housing. A rib clip is held by the clip supports. The rib clip has a plurality of grounding fingers that extend therefrom that are configured to engage corresponding header shields of a header assembly. The rib clip includes a plurality of mounting tabs that extend therefrom for engaging the conductive holder to electrically connect the rib clip to the conductive holder.

Abstract: A receptacle assembly includes a contact module having a conductive holder has a first side and an opposite second side. The conductive holder has a chamber between the first and second sides. A frame assembly is received in the chamber of the conductive holder. The frame assembly includes a plurality of contacts and a dielectric frame supporting the contacts. The contacts extend from the conductive holder for electrical termination. A ground lead frame is received in the chamber between the frame assembly and the conductive holder. The ground leadframe has grounding members that extend from the conductive holder for electrical termination to header shields of the header assembly.

Abstract: An electrical connector for electrically coupling an electronic module and an electrical component. The connector includes a connector body that has first and second mating surfaces. The connector body includes interconnects that extend through the connector body between the first and second mating surfaces for electrically coupling the module and the component. The connector body has a hole extending therethrough along a central axis. The hole is configured to receive a guide pin from one of the module and the component. The connector also includes surface mount projections that are coupled to the connector body and extend toward the central axis of the hole. The projections engage and flex against the guide pin when the guide pin is inserted into the hole. The projections form an interference fit with the guide pin to hold the connector body in a mounted position.

Abstract: An electrical connector for electrically coupling an electronic module and an electrical component. The connector includes a substrate that has first and second surfaces separated by a thickness. The substrate includes interconnects that extend through the substrate and are arranged in an array. The interconnects are configured to engage the module along the first surface and engage the electrical component along the second surface. The connector also includes alignment members that extend through openings in the substrate. The alignment members include heads that project beyond and away from the first surface. The heads are located about the substrate relative to each other to collectively form a module reception area therebetween to hold the module in a predetermined position and orientation with respect to the first surface and with respect to the interconnects.

Abstract: An interposer frame assembly includes a static frame and a biasing frame. The static and biasing frames include legs joined with and oriented at an angle with respect to one another. The legs include mounting surfaces and opposite upper surfaces that are interconnected by an inner side. The mounting surfaces have outwardly protruding posts and the inner sides have protrusions extending away from the legs. The posts are received in openings of an interposer assembly such that the static frame and the biasing frame are aligned on opposite sides of a contact field of the interposer assembly. The protrusions of the static frame and the biasing members of the biasing frame guide and retain a circuit board with contacts into a mated relationship with corresponding contacts in the contact field of the interposer assembly.

Abstract: An electrical connector for electrically coupling an electronic module and an electrical component. The connector includes a substrate that has first and second surfaces separated by a thickness. The substrate includes interconnects that extend through the substrate and are arranged in an array. The interconnects are configured to engage the module along the first surface and engage the electrical component along the second surface. The connector also includes alignment members that extend through openings in the substrate. The alignment members include heads that project beyond and away from the first surface. The heads are located about the substrate relative to each other to collectively form a module reception area therebetween to hold the module in a predetermined position and orientation with respect to the first surface and with respect to the interconnects.