Abstract: Embodiments of an electrical plug may include an electrical circuit having an input-side interface with at least one input-side contact point for connecting at least one signal conductor of at least one electrical lead. In some embodiments the electrical circuit has an output-side interface with at least one output-side contact point. The electrical circuit may have a transmission option from the input-side interface to the output-side interface for controlling impedance, and the design of the input-side interface in some embodiments may differ from the design of the output-side interface.

Abstract: A preferred embodiment of a plug connector for connecting a waveguide to at least one electric conductor may have a housing for connecting to the waveguide. Fastening means may be provided to attach the housing to a structure having the at least one electric conductor. The housing may accommodate a signal converter having an antenna arrangement. A waveguiding arrangement may be provided within the housing. The waveguiding arrangement may guide an electromagnetic wave into the waveguide and may be paired with the antenna arrangement. The signal converter may be connected to at least one electric conductor and may perform conversion between electric signals and high-frequency electromagnetic signals.

Abstract: An ignition device for igniting an air/fuel mixture in a combustion chamber, in particular of an internal combustion engine, having a spark plug which has a first electrode and a second electrode, having a high voltage source for generating an electrical high voltage pulse at an output of the high voltage source, and having a high frequency voltage source for generating an electrical high frequency alternating voltage at an output of the high frequency voltage source, wherein the output of the high voltage source is connected electrically to the first electrode of the spark plug via a first electrical conduction path in such a way that the high voltage pulse is present at the first electrode, wherein the output of the high frequency voltage source is connected electrically to the second electrode via a second electrical conduction path in such a way that the high frequency alternating voltage is present at the second electrode.

Abstract: The invention relates to an electrical connector assembly, comprising an electrical connector and a cable connected to the electrical connector, which each have at least one conductor pair for transferring a differential signal, wherein the cable has a first section and the electrical connector has a second section, in which second section the conductor pair has plug contacts, and wherein the conductors have a first mutual distance (X) in the first section and a second mutual distance (Y) in the second section, which second mutual distance is greater than the first distance, wherein an intermediate section, in which the distance of the conductors of a conductor pair increases toward a plugging end of the electrical connector, is formed between the first section and the second section, wherein the conductor pair is surrounded by a conductor pair shield in the first section and/or in the second section, which conductor pair shield shields the conductor pair from external electromagnetic influences, and wherein

Abstract: An ignition device for igniting an air/fuel mixture in at least one combustion chamber, having an ignition system with electrodes for each combustion chamber, a high-voltage source for generating an electrical high-voltage impulse at an output of the high-voltage source, and a high-frequency voltage source for generating an electrical high-frequency alternating voltage, wherein m ignition systems (10i) are provided with the formula (I) (natural numbers without zero) and m?2, wherein K high-frequency voltage sources are provided with the formula (II), and K<m, wherein at least one power distributor device is provided which is electrically connected, on the one hand, to at least one high-frequency voltage source and, on the other hand, to n ignition systems, wherein formula (III) and 2?n?m, the power distributor device transmits the high-frequency alternating voltage or voltages from the high-frequency voltage source or sources to the ignition systems n.

Abstract: An insertion-type connecting arrangement having at least one first and one second insertion-type connector and an arrangement of insertion points having at least one first and one second insertion point for the insertion of the insertion-type connectors, there being connected to the first insertion-type connector two or more cores laid up at a preset first lay length and to the second insertion-type connector two or more cores laid up at a preset second lay length, having a coding mechanism which allows the first insertion-type connector to be inserted in the first insertion point but not in the second one and which allows the second insertion-type connector to be inserted in the second insertion point but not in the first one.

Abstract: A plug arrangement having a plug and a cable that is connected thereto and includes at least one inner conductor and an outer conductor surrounding the inner conductor(s); an axial terminal section of the outer conductor is electrically connected to a sleeve portion of an outer conductor housing of the plug, said sleeve portion surrounding the outer conductor; a crimp point comprising a radial constriction of the sleeve portion is located between the axial terminal section of the outer conductor and the axial end of the inner conductor in the longitudinal direction (L) of the cable.

Abstract: A cable for transmitting electrical signals including an outer casing made of an electrically insulating material and at least N lines n with N?2 and N€N which are arranged within the outer casing, wherein each line m has a total of M wires made of an electrically conductive material with M?1 and M€N, wherein the wire m with m€[1, M], m€N, the line n with n E [1, N], n€N is surrounded by a dielectric having a predetermined value for the relative permittivity er(m,n)>1, wherein for each line n the value for the relative permittivity of the dielectrics (24. 26. 28. 30) of the wires (16, 18, 20, 22) of this line n is identical, except for deviations resulting from the manufacturing process, so that er(p·n)=er(p+q,n), where q€[1, M?p], q€Np € [1, M?1], p€N.

Abstract: An ignition device for igniting an air-fuel mixture in a combustion chamber, in particular an internal combustion engine, having a spark plug, which has a first electrode and a second electrode, and a high voltage source for generating an electrical high voltage pulse at an output of the high voltage source and having a high frequency voltage source for generating an electrical high frequency alternating voltage at an output of the high frequency voltage source, wherein the output of the high voltage source is electrically connected to the first electrode of the spark plug via a first electrical conductor path such that the high voltage pulse is applied to the first electrode, wherein the second electrode is electrically connected to an electrical ground potential, wherein the spark plug has a third electrode, wherein the output of the high frequency voltage source is electrically connected to the third electrode via a second electrical conductor path, such that the high frequency alternating voltage is appli

Abstract: A USB cable having at least two pairs of strands, each pair designed to transmit a differential data signal in the longitudinal direction (L) of the cable, the strands extending helically about a common braiding center such that at least one additional wire pair does not have a separate shield, wherein the wires of the additional wire pair are arranged at a distance from one another on opposite sides of the stranding center.

Abstract: The invention relates to a cable for transmitting electrical signals, comprising an outer casing made of an electrically insulating material and at least N lines n with N?2 and N?|N, which are arranged inside the outer casing, wherein each line m has a total of M wires made of an electrically conductive material with M?1 and M?|N, wherein the wire m with ?[1,M], m?|N of the line n with n?[1,N], n?|N is surrounded by a dielectric having a predetermined value for the relative permittivity ?r(m,n)>1. The following applies for at least two different lines: n=j and n=(j+s) ?r(m,j)=?r(m,j+s)?k(s) with m?[1,M], m?|N, j?[1,N?1], j?|N, s?[1, N?j], s?|N, wherein k(s)? and k(s)?[?2.0, ?0,01] and k(s)?[0.01,2.0].

Abstract: A method for transmitting three data signals from a USB signal in which the first data signal is transmitted differentially via a first conductor pair and the second data signal is transmitted differentially via a second conductor pair. A signal portion of the third data signal is transmitted as a common mode component via the first conductor pair and a reference portion of the third data signal is transmitted as a common mode component via the second conductor pair. A USB transmission system for carrying out this method and an adapter for a USB transmission system are presented.

Abstract: A cable arrangement of at least two cables which extend adjacently in a substantially parallel manner, a first cable and a second cable of which each having at least one stranding group which has two or more conductors that are twisted together. The length of lay of each of the stranding groups varies in the longitudinal direction of the individual cables. In addition, the length of lay of a stranding group winding of the stranding group of the first cable is smaller than the length of lay of a most directly adjacent stranding group winding of the stranding group of the second cable.

Abstract: A plug connector arrangement having a plug connector and a cable connected thereto, with at least one conductor pair for transmitting a differential signal, wherein the conductors of the conductor pair have a first mutual spacing (X) in a sheathed cable section, diverge in an expansion section in the direction of the plug connector, and have a larger second mutual spacing (Y) in a guide section of the plug connector, wherein a sleeve part at least partially surrounding the conductor pair in the expansion section is provided to exert pressure on the conductors of the conductor pair at least in sections, in order to reduce the spacing therebetween.

Abstract: An insertion-type connecting arrangement having at least one first and one second insertion-type connector and an arrangement of insertion points having at least one first and one second insertion point for the insertion of the insertion-type connectors, there being connected to the first insertion-type connector two or more cores laid up at a preset first lay length and to the second insertion-type connector two or more cores laid up at a preset second lay length, having a coding mechanism which allows the first insertion-type connector to be inserted in the first insertion point but not in the second one and which allows the second insertion-type connector to be inserted in the second insertion point but not in the first one.

Abstract: A plug connector arrangement having a plug connector and a cable connected thereto, at least one inner conductor and an outer conductor surrounding the inner conductor, wherein the outer conductor of the cable is electrically connected to an outer conductor housing of the plug connector. The plug connector arrangement additionally has a sleeve part which surrounds the inner conductor, has approximately the same inner diameter (D) as the outer conductor (34) of the cable, adjoins a front axial end (A) of the outer conductor, and continues a shielding of the inner conductor in the direction of the front cable end.

Abstract: A plug connector arrangement having a plug connector and a cable connected thereto, with at least one conductor pair for transmitting a differential signal, wherein the conductors of the conductor pair have a first mutual spacing (X) in a sheathed cable section, diverge in an expansion section in the direction of the plug connector, and have a larger second mutual spacing (Y) in a guide section of the plug connector, wherein a sleeve part at least partially surrounding the conductor pair in the expansion section is provided to exert pressure on the conductors of the conductor pair at least in sections, in order to reduce the spacing therebetween.

Abstract: A plug arrangement having a plug and a cable that is connected thereto and includes at least one inner conductor and an outer conductor surrounding the inner conductor(s); an axial terminal section of the outer conductor is electrically connected to a sleeve portion of an outer conductor housing of the plug, said sleeve portion surrounding the outer conductor; a crimp point comprising a radial constriction of the sleeve portion is located between the axial terminal section of the outer conductor and the axial end of the inner conductor in the longitudinal direction (L) of the cable.

Abstract: A plug connector arrangement having a plug connector and a cable connected thereto, at least one inner conductor and an outer conductor surrounding the inner conductor, wherein the outer conductor of the cable is electrically connected to an outer conductor housing of the plug connector. The plug connector arrangement additionally has a sleeve part which surrounds the inner conductor, has approximately the same inner diameter (D) as the outer conductor (34) of the cable, adjoins a front axial end (A) of the outer conductor, and continues a shielding of the inner conductor in the direction of the front cable end.

Abstract: A method for determining electric voltage u(t) and/or electric current i(t) of an RF signal in the time domain in a calibration plane, wherein by at least one directional coupler having two outputs and one signal input a first component of a first RF signal that runs from the signal input in the direction of the calibration plane, and a second component of a second RF signal that runs from the calibration plane in the direction of the signal input is decoupled. For a two-port error of the directional coupler, the error terms e00, e01, e10 and e11, are determined as a function of a frequency f and the signal values v1(t) and v2(t) are transformed into the frequency domain as wave quantities V1(f) and V2(f), and absolute wave quantities a1 and b1 in the frequency domain in the calibration plane are calculated from the wave quantities V1(f) and V2(f) by the error terms e00, e01, e10 and e11.