Abstract: The invention relates to a contact set for a connection socket, with the contact set comprising at least two contact elements, with the contact elements comprising at least a first section, a second section, and a third section, with the first section comprising a connection element, with the contact elements being fixed in their respective position towards each other by an isolation body in the second section, and with the third section comprising a contact area for a contact element of a plug to be inserted into the connection socket, with the contact elements comprising a fourth section for contacting a compensation element that can be arranged between the fourth section and the isolation body.

Abstract: The invention relates to a plug-in connector for a data or telecommunication cable comprising several wires with a contact carrier, comprising connection contacts for a plug-in connection and with connecting contacts, connected thereto in an electrically-conducting fashion, for the wires of the cable, and with an accepting screen.

Abstract: The invention relates to a contact set for a connection socket, with the contact set comprising at least two contact elements, with the contact elements comprising at least a first section, a second section, and a third section, with the first section comprising a connection element, with the contact elements being fixed in their relative position to each other by an isolation body in the second section, and with the third section comprising a contact area for a contact element of a plug to be inserted into the connection socket, with at least two of the contact elements comprising a compensation area at a free end of the third section, with two compensation areas being arranged such that they at least partially overlap, with an isolation film being arranged between the two compensation areas and with the isolation film and the two compensation areas being surrounded with an isolating housing.

Abstract: The invention relates to a contact set for a connection socket, with the contact set comprising at least two contact elements, with the contact elements comprising at least a first section, a second section, and a third section, with the first section comprising a connection element, with the contact elements being fixed in their respective position towards each other by an isolation body in the second section, and with the third section comprising a contact area for a contact element of a plug to be inserted into the connection socket, with the contact elements comprising a fourth section for contacting a compensation element that can be arranged between the fourth section and the isolation body.

Abstract: The invention relates to a contact set for a connection socket, with the contact set comprising at least two contact elements, with the contact elements comprising at least a first section, a second section, and a third section, with the first section comprising a connection element, with the contact elements being fixed in their relative position to each other by an isolation body in the second section, and with the third section comprising a contact area for a contact element of a plug to be inserted into the connection socket, with at least two of the contact elements comprising a compensation area at a free end of the third section, with two compensation areas being arranged such that they at least partially overlap, with an isolation film being arranged between the two compensation areas and with the isolation film and the two compensation areas being surrounded with an isolating housing.

Abstract: The invention relates to a plug-in connector for a data and/or telecommunication cable comprising several wires with a contact carrier, comprising connection contacts for a plug-in connection and with connecting contacts, connected thereto in an electrically-conducting fashion, for the wires of the cable, and with an accepting screen.

Abstract: The invention relates to a method and a device for machining the periphery of a workpiece (8) by means of a laser (1). The device includes a peripheral mirror (5) with a peripheral mirror system axis (9) and an optical system which couples a radiation beam (3) perpendicular to the peripheral mirror system axis (9) into the peripheral mirror (5) such that it hits the workpiece (8) after several reflections, the workpiece axis (11) extending in the same direction within the peripheral mirror (5) than the peripheral mirror system axis (9). According to the method of the invention, the radiation beam (3) is coupled into the peripheral mirror (5) over a predefined machining time, wherein the workpiece (8), the peripheral mirror (5) and/or the optical system are maintained in a relative position of rest or moved in relation to one another.

Abstract: A connecting element (1) for shielded data and/or telecommunications cables (2, 3), with a metal housing (10) and with at least one connector jack (15, 16), where contact means (20, 21) are provided for contacting the metal housing (10) with a plug housing (6, 7), particularly with the plug housing (6, 7) of an RJ-45 plug (4, 5), and where at least one spring tab (20, 21) forming a single piece with the metal housing (10), or with a part (8, 9) of the metal housing, is provided as the contacting means (20, 21).

Abstract: Current-dependent resistive component, especially one that can be used as a switch, sensor or storage element, a ≦4 nm thick layer of manganate which is provided with electrical contacts and has been applied on a substrate.

Abstract: A method is disclosed enabling a technologically controllable and economical production of a hard-magnetic powder composed of a samarium-cobalt base alloy for highly coercive permanent magnets. The method is based on a HDDR treatment in which a starting powder is subjected to hydrogenation with disproportionation of the alloy in a first method step under hydrogen and, in a subsequent, second method step under vacuum conditions, a hydrogen desorption with recombination of the alloy. A starting powder containing samarium and cobalt is treated in the first method step either at a high temperature in the range of 500° C. to 900° C. and with a high hydrogen pressure of >0.5 MPa or by applying an intensive fine grinding at a low temperature in the range of 50° C. to 500° C. and with a hydrogen pressure of >0.15 MPa.

Abstract: A process is provided for a technologically controllable, economic production of hard-magnetic parts from Sm.sub.2 --(Fe,M).sub.17 --C.sub.y -base work materials with interstitial inclusions, where M designates gallium and/or at least one metallic element serving to stabilize a rhombohedral 2:17 structure. A Sm.sub.2 Fe.sub.17-x M.sub.x C.sub.y powder mixture is produced, where x>0.1 and 3.gtoreq.y.gtoreq.0. The mixture is subjected to an intensive fine grinding process in a ball mill. The finely ground mixture is heat-treated in a temperature range from 650.degree. C. to 900.degree. C. for partial or complete recrystallization. The resulting ultra-fine-grain Sm.sub.2 Fe.sub.17-x M.sub.x C.sub.y magnetic powder is compacted to produce magnet bodies by a hot pressing processing in a temperature range from 650.degree. C. to 900.degree. C. The process is applicable, for example, for the production of hard-magnetic parts based on interstitial Sm.sub.2 Fe.sub.17 C.sub.y compounds.