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.

Abstract: A plug connector housing having a housing, a sleeve arranged movably relative to the housing, and a lever, the lever being mounted on the housing for rotation about an axis of rotation extending perpendicularly to a plug-in direction of the plug connector housing, wherein the sleeve can be displaced in the plug-in direction in order to fix a cable by a rotary movement of the lever and the plug connector housing can be locked with a mating plug connector housing by the rotary movement of the lever, the housing having a cable-side end and a plug-side end and a strain relief element having an opening for passing through a cable being arranged at the cable-side end of the housing, and it being possible for the sleeve to at least partially be pushed onto the strain relief element in order to exert radial pressure on the strain relief element relative to the plug-in direction.

Abstract: A method for assembling a cable connector which has an outer conductor part, and insulating part and an electrical cable that is prefabricated with an inner conductor part. In a first method step, the insulating part is introduced into the outer conductor part by relative movement between the insulating part and the outer conductor part. In a second method step, before or at least partially during the first method step, the electrical cable is prefabricated to have an inner conductor part secured on an inner conductor of the cable. In a third method step, during or after the first method step, the prefabricated cable is introduced into the insulating part up to a defined axial terminal position. The positions of the inner conductor part, the outer conductor part and/or the insulating part are fixed relative to each other by compressing the outer conductor part at least partly.

Abstract: The present invention relates to a cable arrangement comprising a cable that has an outer conductor, and an outer-conductor contact element that is electrically connected to the outer conductor and has a diameter change. In a region of the diameter change, the cable arrangement also has a filling element, which is electrically conductive. The filling element is configured to reduce an air inclusion in the region of the diameter change.

Abstract: An electrical plug connector, in particular an electrical pin connector socket for the power electronics in the automotive sector, comprising a plug connector body for receiving a contact device and comprising a shield. The plug connector body is designed for introducing into an opening of a housing part of a housing of an electronics unit. The plug connector body is designed in multiple parts and has at least one inner plug connector body and an outer plug connector body, which are positioned on opposite sides of the housing part. The inner plug connector part can be fixed in the housing of the electronics unit independently of the housing part. Securing means connect the plug connector bodies to one another so that the housing part is fixed between the plug connector bodies.

Abstract: An apparatus for igniting a fuel mixture provides an ignition system for generating a high-voltage ignition voltage, a circuit device comprising a circuit for superimposing a high-frequency signal on to the high-voltage ignition voltage, a spark plug in an engine block, and a transmission element having a high-voltage conductor which is guided in an insulation element. The high-voltage conductor is used for transmitting the ignition voltage, onto which the high-frequency signal has been superimposed, to the spark plug. Further provided is an electrically conducting shielding element which surrounds the high-voltage conductor in an electromagnetically shielding manner at least along one portion of the longitudinal axis of the high-voltage conductor. The shielding element is connected in an electrically conducting manner to a ground potential of the circuit device and establishes a connection between the ground potential of the circuit device and a ground electrode of the spark plug.

Abstract: An electrical plug-in connector for differential signal transmission, having an external conductor contact element, a dielectric and at least one internal conductor contact element pair for differential signal transmission. The dielectric extends along a longitudinal axis through the external conductor contact element. The internal conductor contact element pair has a first internal conductor contact element and a second internal conductor contact element which extend along the longitudinal axis through the dielectric. The external conductor contact element and/or the dielectric have a compensation geometry in order to compensate for an asymmetry of the internal conductor contact element pair with respect to the longitudinal axis. As an alternative or in addition, it is provided that the internal conductor contact element pair has a compensation geometry in order to compensate for an asymmetry of the external conductor contact element and/or of the dielectric with respect to the longitudinal axis.

Abstract: Embodiments of a high-frequency electrical distributor device may have an input end with a connector of a first connector type, and an output end with at least two connectors of at least one second connector type which is different from the first connector type. Embodiments may further include a distributor region between the connector at the input end and the connector at the output end. The connector at the input end has at least two differential contact element pairs. The distributor region distributes the contact element pairs of the connector at the input end to the connectors at the output end.

Abstract: A secondary securing means for locking an electrical plug connection of a first electrical plug connector and a mating plug connector includes a securing element and a plug-in prevention means. By a closing movement, the securing element can be moved from a preliminary latching position into a locking position in which the securing element mechanically secures the plugged plug connection.

Abstract: The invention relates to an apparatus for igniting a fuel mixture. Set apparatus comprises an ignition system for generating a high-voltage ignition voltage as well as a circuit device comprising a circuit for superimposing a high-frequency signal on to the high-voltage ignition voltage. The apparatus further comprises a spark plug in an engine block as well as a transmission element for transmitting the ignition voltage, onto which the high-frequency signal has been superimposed, to the spark plug. The transmission element includes a contact element which is provided with an electrically conductive coating along at least one portion of the longitudinal axis of the contact element, the impedance of the coding being lower than the impedance of the contact element.

Abstract: The present invention relates to an ignition coil for generating a high-voltage pulse with a superimposed high-frequency voltage. The ignition coil comprises a first coil arranged on the primary side, a second coil arranged on the secondary side, a magnetic core and a third coil. The windings of the first coil and of the second coil are wound around the magnetic core. The second coil and the third coil are electrically connected to one another. A high-frequency terminal, which receives the high-frequency voltage, is electrically connected to the second coil and to the third coil.

Abstract: Embodiments of a prefabricated electric cable may have an outer conductor shield and a support sleeve which is fastened to the outer conductor shield. The support sleeve has a cable-side end and a portion of the support sleeve tapers in an axial direction oriented toward the cable-side end.

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-in connection provides a connecting element having an electrically conductive outer housing with a first electrical plug-in connector at a first end that has a ring-segment shaped first contact region, and a first electrical counterpart plug-in connector having contact springs that act via the first contact region to produce electrical contact and a mechanical connection between the first plug-in connector and the first counterpart plug-in connector and the contact springs generate an axial force which acts along a longitudinal axis of the first counterpart plug-in connector which pushes the outer housing against an axial end stop of the first counterpart plug-in connector, and/or the contact springs exert on the first contact region and on a ring-segment shaped, and axially offset, second contact region a radial force, which acts orthogonally with respect to the longitudinal axis of the first counterpart plug-in connector.

Abstract: A cable connector arrangement includes a cable connector and an electrical cable with a plurality of individual lines each having a respective insulation and electrical conductor. The connector may include a front section configured for connection to a mating connector, a rear section in which the individual lines are surrounded by a cable sheath, and a central section. The electrical conductors of two individual lines have a first mutual distance in the rear section and a greater, second mutual distance in the front section with the mutual distance being increased in the central section. At least one pressing means in the central section may press at least the two individual lines together such that their insulations undergo mechanical deformation in a region of common contact.

Abstract: An electrical plug-in connector includes an internal conductor contact element, an external conductor contact element and an insulating protective element arranged between the internal conductor contact element and the external conductor contact element. The external conductor contact element may have a recess for providing an assembly access point for fastening the internal conductor contact element to an internal conductor of an electrical cable. The insulating protective element can be displaced between an assembly position, in which the assembly access point is cleared through the assembly recess to the internal conductor contact element, and an insulating protection position, in which the assembly access point to the internal conductor contact element is blocked by the insulating protective element.

Abstract: A connector arrangement comprises at least at least two cables, each comprising one cable sheath, and respectively one shielding arranged within the cable sheath. The shielding is exposed from the cable sheath at one cable end. The connector arrangement additionally comprises a connector housing made of an electrically conductive material, in which there is realized a respective a leadthrough for each cable. The exposed shielding of each cable is located in the respective leadthrough, and is frictionally connected to the connector housing. The connector arrangement also comprises a crimp barrel. The crimp barrel encloses the connector housing and each leadthrough, and is frictionally connected to the connector housing.

Abstract: The invention relates to a coupling and decoupling device between a circuit carrier and a waveguide. The coupling and decoupling device contains a retaining element, which has a first end for coupling to the circuit carrier and a second end for coupling to the waveguide. Two dipole antennas, which are crossed over and oriented orthogonally to each other, are arranged between the first end and the second end. The coupling and decoupling device furthermore contains two conductor pairs, which are arranged crossed over each other and are designed such that the conductor pairs are connected to the two dipole antennas and to associated contact surfaces on the circuit carrier. According to the invention, an electrically conductive layer is fixed on the first end. The retaining element is formed as a hollow conductor having a first opening on the end face of the hollow conductor for coupling to the circuit carrier and a second opening on the end face of the hollow conductor for coupling to the waveguide.