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: 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 cable, such as a USB cable, having at least two pairs of strands, each of which is designed to transmit a differential data signal; in the longitudinal direction (L) of the cable, the at least two pairs of strands extend helically about a common braiding center.

Abstract: An arrangement of at least two adjacently extending cables, of which a first cable and a second cable which each have at least one stranding group that has two or more conductors stranded to each other and which each have a common cable sheath surrounding the stranding group, a spacer being provided outside on at least one of the cable sheaths for increasing a minimum distance (A) between the stranding groups of the two cables.

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 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: An automated machine tool with a workpiece carrier for receiving a printed circuit board, at least one drilling station for processing printed circuit boards, and a mechanism for sequentially applying individual printed circuit boards onto the workpiece carrier and for removing printed circuit boards from the workpiece carrier.

Abstract: The invention concerns an automated machine tool with a workpiece carrier (1) for receiving a printed circuit board (3, 3?), at least one drilling station (8) for processing printed circuit boards, as well as a mechanism for sequentially applying individual printed circuit boards (3, 3?) onto the workpiece carrier (1) and for removing printed circuit boards from the workpiece carrier. Further, the invention concerns a method for drilling reference bores into printed circuit boards (3, 3?).