Abstract: The present invention relates to a method for producing a high-frequency connector. The method includes producing a basic body part from a dielectric material by means of an additive manufacturing method. The basic body part has a bushing between a first end and a second end of a longitudinal extent of the basic body part and an end face at the first end for making contact with a mating connector. In addition, the method includes coating the dielectric basic body part with an electrically conductive layer and removing the electrically conductive layer in a region surrounding the bushing in each case at the end face at the first end and at the second end of the basic body part so as to form an electrically conductive coating on the outer conductor side and an electrically conductive coating on the inner conductor side. The present invention also relates to a high-frequency connector.

Abstract: A plug connection device for connecting an electrical cable and establishing a ground connection to an external component may have at least one plug connector and fastening means electrically and mechanically connectable therewith. The plug connector may have a housing and a plug body which is connectable to a conductor of the electrical cable and receivable in an axial direction in a receptacle of the housing. The contact element may plug into the housing to make electrical contact with the plug body received in the receptacle. The contact element and connection element are electrically connected to one another. The connection element may be connected to a ground cable that is connectable with the external component to establish, independently of the electrical cable, the ground connection with the external component via the plug body, contact element, connection part and the ground cable.

Abstract: A waveguide assembly comprising a first waveguide, and a second waveguide designed as a dielectric multimodal waveguide, and a waveguide transition for transmitting an electromagnetic wave between the first waveguide and the second waveguide, the waveguide transition having a dielectric waveguide piece which is between the first waveguide and the second waveguide. The dielectric waveguide piece is capable of guiding a smaller mode number than the second waveguide, at least in a front section, facing the first waveguide.

Abstract: A diagnosis plug-in connection comprising an electrical plug connector and a mating electrical plug connector. The electrical plug connector comprises a diagnosis module with an outer conductor contact and an inner conductor contact within the outer conductor contact. The mating plug connector comprises a diagnosis head with an electrically conductive spring cage, which is designed for electrical and mechanical connection to the outer conductor contact of the diagnosis module of the plug connector. The spring cage electrically and mechanically contacts the inner conductor contact of the diagnosis module of the plug connector when the plug connector is plugged together with the mating plug connector.

Abstract: An electrical connector for an electrical cable having a contact element for connection to an electrical conductor of the electrical cable. The electrical connector has an integrated cleaning tool for the electrical conductor. The cleaning tool is arranged along a feed direction for the electrical cable on the cable side upstream of the contact element. It is provided that the cleaning tool is designed to remove or at least retain particles, residues of a sheathing and/or contaminants adhering to the electrical conductor before the electrical conductor contacts the contact element of the electrical connector arranged downstream in the feed direction within the scope of a connector assembly process.

Abstract: The invention relates to a front plate for a housing of a control installation, having a feedthrough for a plug connector. The front plate has at least one compensation element for compensating a tolerance-related offset (VA, VR) between the plug connector and the feedthrough (10) is disposed in the feedthrough and/or adjacent to the feedthrough.

Abstract: An assembly, comprising: a circuit board; a electrical connector mounted to a circuit board; and a counterweight mounted to the circuit board, wherein the counterweight contacts a first major surface of the circuit board, a center of gravity of the electrical connector is not situated in a plane that perpendicularly intersects the first major surface, a combined center of gravity of the electrical connector and the counterweight is situated in a plane that perpendicularly intersects the first major surface, the counterweight arches over an outer circumference of the electrical connector.

Abstract: The invention relates to an electrical plug connector having an outer conductor contact element with a plurality of elastic spring tabs and a dielectric support element. The spring tabs are arranged, with a respective rear end, annularly around the longitudinal axis (L) of the plug connector and are fastened indirectly or directly to an electrical device. It is provided that the spring tabs are supported with a respective front, free end section laterally on the dielectric support element, wherein the dielectric support element is displaceable laterally relative to the electrical device.

Abstract: An electrical plug connector for a cable has a compression sleeve and a stop element that is axially adjacent to and connected to the compression sleeve. The compression sleeve has an inner lateral surface thread that is screwable to an outer lateral surface thread of an outer conductor of the cable. The outer conductor is clampable between the compression sleeve and an axial end region of the stop element, and in an assembled state, a longitudinal axis of the compression sleeve, is tilted relative to a longitudinal axis of the stop element; or b) a normal vector of a plane spanned by an edge between an end face and an inner lateral surface of the stop element is rotated by orientation angle (?A) relative to the longitudinal axis of the compression sleeve; or c) the edge has a helical course in a longitudinal axis direction of the plug connector.

Abstract: A cable holder may include a first housing shell, a second housing shell, and a hinge connecting the first housing shell to the second housing shell pivotably between an open position and a closed position and may further include a first connection element for making connection to a second connection element of a second cable holder. The second connection element is preferably at least substantially a negative shape of the first connection element, such that the first connection element and the second connection element may establish a linear-motion bearing with the respective counterpart.

Abstract: Embodiments of an electrical connector may have a first end portion on which a first interface is arranged and a second end portion on which a second interface is arranged. The first interface and second interface can each be connected to a respective mating electrical connector. The first interface may form at least two contact element pairs with the second interface, each of the contact element pairs having a first contact element which is associated with the first interface and a second contact element which is mechanically connected to the first contact element and is associated with the second interface. A third interface between the first end portion and the second end portion may electrically and mechanically connect at least one of the contact element pairs to a printed circuit board on which the electrical connector may be mounted.

Abstract: An electrical plug connector, having an insulating part and an inner-conductor contact element pair for differential signal transmission. The inner-conductor contact element pair comprises first and second inner-conductor contact elements, which extend through the insulating part. The inner-conductor contact elements, proximate a first end of the insulating part, have a contact section for contacting an inner conductor of a corresponding counterpart plug connector and proximate a second end of the insulating part, have a press-in pin for pressing into a metal-plated recess of an electrical assembly. The inner-conductor contact elements each have one support shoulder via which a pressing-in force can be introduced for pressing the press-in pin into the metal-plated recess. The support shoulder is along the central axis of the inner-conductor contact element.

Abstract: A fiber optic module for installation within patch panel, the fiber optic module comprising a first outer wall with a first rail profile on its outside surface, a second outer wall with a second rail profile on its outside surface, and at least one optical connector. The first outer wall and the second outer wall run parallel to each other. The at least one optical connector is arranged between the first outer wall and the second outer wall. The first rail profile and the second rail profile are complementary to each other such that the fiber optic module may be coupled to an adjacent fiber optic module, wherein the first rail profile of the fiber optic module may be coupled to the second rail profile of the adjacent fiber optic module.

Abstract: The invention relates to an assembled electrical cable (1). The cable (1) has a cooling channel (2) extending along the center axis (M) of the cable (1) and at least one inner conductor (4) extending along the outer surface of the cooling channel (2). The cable (1) furthermore has a cable sheath (7) guiding the inner conductor (4) and the cooling channel (2) within itself and a contact element (9) for an electrical plug connector (10), wherein the contact element (9) is electrically and mechanically connected to at least one portion of the inner conductor (4) exposed from the cable sheath (7). According to the invention, the inner conductor (4) is integrally joined to the contact element (9) or is compacted in a planar manner in order to form the contact element (9).

Abstract: The invention relates to a fastening screw, comprising an electrically insulating insulating body and a metal body formed from a metal and having an external thread. The metal body is fastened on the insulating body and has a first axial end and a second axial end opposite the first axial end, wherein the first axial end is remote from a screw head of the fastening screw. It is provided that the insulating body, by means of a shaft portion, emerges from the first axial end of the metal body along the longitudinal axis (L) of the metal body.

Abstract: The invention relates to an electrical plug-in connection, comprising an electrical connector and a mating electrical connector, which can be connected to the electrical connector. The mating electrical connector has an actuating element, which can be moved between a home position (P0) and a locking position (P1) and is designed to cooperate with a guiding element of the electrical connector in such a way that the plug-in connection, proceeding from a pre-latching position, assumes a locked position when the actuation element is moved from the home position (P0) into the locking position (P1). The electrical connector has a toothing and the mating electrical connector has a mating toothing, which corresponds to the toothing of the electrical connector, the toothing and the mating toothing mesh with one another in the locked position of the plug-in connection.

Abstract: An electrical connector has a connector housing, a securing element and an actuating element movable between a home position and a locking position and which is designed to lock the electrical connector with a corresponding electrical counterpart connector. The connector housing has a locking guide for guiding the securing element between an initial position, and a securing position, wherein the securing element engages with the actuating element so that the actuating element is locked in the locking position. The securing element has a latching tab and the locking guide has a first stop for the latching tab to block the securing element in the initial position. The actuating element has a releasing body which penetrates into a recess in the locking guide to displace the latching tab of the securing element, to release the securing element.

Abstract: An electrical plug connector, having an electrically insulating housing assembly and an outer-conductor assembly connected in positively locking fashion to the housing assembly. The outer-conductor assembly has at least one fastening tab which can be bent from a basic state into a fastening state. The outer-conductor assembly is received in the housing assembly such that the housing assembly blocks relative movement between the outer-conductor assembly and the housing assembly in positively locking fashion along a first translational degree of freedom (x) and/or along a second translational degree of freedom (y). The fastening in the basic state, allows an assembling movement for assembling the housing assembly on the outer-conductor assembly along a third translational degree of freedom (z) and, in the bent fastening state, blocks the housing assembly on the outer-conductor assembly in positively locking fashion at least along the third translational degree of freedom (z).

Abstract: An outer conductor contact element for a plug connector arrangement, having a fixing stop which engages behind a cable-side end face of a support sleeve and along a longitudinal axis (L) of the plug connector arrangement, and the cable-side end face is remote from a front, free end of the outer conductor contact element, and the fixing stop is formed in the outer conductor contact element by a male connector-side edge of a material cut-out in the outer conductor contact element that is proximate to a front, free end of the outer conductor contact element. Alternatively, or in addition, the fixing stop is formed by a separate stop element that is fastened to an inner wall of the outer conductor contact element. Alternatively, or in addition, the fixing stop is formed by a stamped shaping in the outer conductor contact element.