Abstract: A crimping unit for radially crimping a crimp barrel along a circumference of the crimp barrel onto a cable includes a plurality of radially displaceable crimping jaws arranged in a circumferential direction, which press the crimp barrel onto the cable in a crimping position. The crimping unit further includes a retaining ring, in which the crimping jaws are accommodated in a radially displaceable manner, and an actuating ring axially displaceable relative to the retaining ring. An axial displacement of the actuating ring in a first direction enables radial displacement of the crimping jaws in the retaining ring into the crimping position. An axial displacement of the actuating ring in a second direction enables an active section of the actuating ring to interact with an active surface of a crimping jaw such that it is movable from the crimping position into a radially spaced position.

Abstract: A crimping device for securing a crimp barrel on a conductor of a cable includes a crimper, an anvil that interacts with the crimper, a cutter, a cutter actuator and a holding sheet. The cutter has a receiving surface configured to receive a cable dielectric enclosing the conductor. The cutter actuator is configured to press the cutter down at a reversal point and to be actuated jointly with the crimper. The holding sheet has a molded portion on a side facing toward the receiving surface of the cutter. The molded portion of the holding sheet and the receiving surface of the cutter substantially fully encompass the cable dielectric when the cutter actuator is at the reversal point.

Abstract: A grounding clip for fastening and electrically contacting two cables to a separate surface includes a plate having a first and second longitudinal edges opposite each other and extending in a first direction, and first and second transverse edges opposite each other and extending perpendicularly to the longitudinal edges in a second direction. First and second cable fastening regions for fastening and electrically contacting first and second cables to the plate extends along the first and second transverse edges, respectively. An opening is arranged between the cable fastening regions for inserting a fastener. First and second tabs extend between the first and second cable fastening regions in parallel to the first and second transverse edges, respectively, and perpendicularly to a plane of the plate in a direction of an underside of the plate.

Abstract: A grounding clip for fastening and electrically contacting two cables to a separate surface includes a plate having a first and second longitudinal edges opposite each other and extending in a first direction, and first and second transverse edges opposite each other and extending perpendicularly to the longitudinal edges in a second direction. First and second cable fastening regions for fastening and electrically contacting first and second cables to the plate extends along the first and second transverse edges, respectively. An opening is arranged between the cable fastening regions for inserting a fastener. First and second tabs extend between the first and second cable fastening regions in parallel to the first and second transverse edges, respectively, and perpendicularly to a plane of the plate in a direction of an underside of the plate.

Abstract: A method provides for producing a cable connection assembly including an electrical cable connected to a cable connector. The cable connector is positioned on a conductor end portion, so that a portion of the insulating layer is at least partially surrounded by the cable connector. The conductor end portion is disposed within a fastening tube, so that a first tube portion of the fastening tube surrounds the cable connector, and a second tube portion of the fastening tube surrounds the cable jacket. The fastening tube is pressed between strip-shaped pressing surfaces which are disposed around a central axis at a constant distance therefrom. During the pressing step, the first tube portion is pressed to a first inner diameter and the second tube portion is pressed to a second inner diameter greater than the first inner diameter.

Abstract: A method provides for producing a cable connection assembly including an electrical cable connected to a cable connector. The cable connector is positioned on a conductor end portion, so that a portion of the insulating layer is at least partially surrounded by the cable connector. The conductor end portion is disposed within a fastening tube, so that a first tube portion of the fastening tube surrounds the cable connector, and a second tube portion of the fastening tube surrounds the cable jacket. The fastening tube is pressed between strip-shaped pressing surfaces which are disposed around a central axis at a constant distance therefrom. During the pressing step, the first tube portion is pressed to a first inner diameter and the second tube portion is pressed to a second inner diameter greater than the first inner diameter.

Abstract: A method for producing a shaft-hub connection, in particular between a helically toothed pinion (2) and a hub (6), a partial section (3) of the helically toothed running toothing (4) of the pinion is used, during the connection to the hub, as a type of chip-removing cutting tool, by virtue of the partial section cutting with the profiles of its teeth into the hub in an axially aligned fashion.

Abstract: A flow resistor having a flow conduit with an inlet opening and an outlet opening, and a membrane forming a wall of the flow conduit, and a cross section of the flow of the flow conduit can be varied by exerting pressure on the membrane. The flow resistor has a cavity containing a medium with a positive temperature coefficient and a flow chamber; the membrane separates the cavity from the flow chamber and is both the wall of the cavity as well as the wall of the flow conduit, wherein the flow conduit is constructed as a helical recess, open to the membrane, in a surface of a lower cover that closes the flow chamber, wherein an inflow opening is arranged in the center of an area fixed by the flow conduit and wherein an outflow opening is arranged on the edge side.

Abstract: In the case of a clamping element for connecting a motor shaft to a transmission via a hub (3), in particular transmission component, such as transmission drive shaft, sun wheel, clutch or the like, with at least one fixing element (7) being inserted radially in the clamping element, the fixing element (7) is at the same time to form both a tangential element for securing the clamping element (R1, R2) against rotation and an axial element for securing the clamping element (R1, R2) with respect to the hub (3).

Abstract: In the case of a clamping element for connecting a motor shaft to a transmission via a hub (3), in particular transmission component, such as transmission drive shaft, sun wheel, clutch or the like, with at least one fixing element (7) being inserted radially in the clamping element, the fixing element (7) is at the same time to form both a radial element for securing the clamping element (R1, R2) against rotation and an axial element for securing the clamping element (R1, R2) with respect to the hub (3).

Abstract: A method for producing a shaft-hub connection, in particular between a helically toothed pinion (2) and a hub (6), a partial section (3) of the helically toothed running toothing (4) of the pinion is used, during the connection to the hub, as a type of chip-removing cutting tool, by virtue of the partial section cutting with the profiles of its teeth into the hub in an axially aligned fashion.

Abstract: In the case of a clamping element for connecting a motor shaft to a transmission via a hub (3), in particular transmission component, such as transmission drive shaft, sun wheel, clutch or the like, with at least one fixing element (7) being inserted radially in the clamping element, the fixing element (7) is at the same time to form both a radial element for securing the clamping element (R1, R2) against rotation and an axial element for securing the clamping element (R1, R2) with respect to the hub (3).

Abstract: A lift and turn drive unit, comprising a working element which may be linearly displaced and rotated relative to at least one housing element, whereby the working element is formed from at least one lifting element and at least one turning element.

Abstract: A rotational rate gyroscope for detecting rotation thereof comprises a base member, a primary oscillator supported by its primary oscillator suspension so as to be movable with respect to the base member, and a secondary oscillator supported by a secondary oscillator suspension, separate from primary oscillator suspension, so as to be movable with respect to the primary oscillator. The secondary oscillator suspension is designed such that movement that can be applied to the primary oscillator can be transferred to the secondary oscillator, whereas the movement of the secondary oscillator effected by the Coriolis force substantially is not transferred back to the primary oscillator. In addition thereto, the major surfaces of the primary oscillator and of the secondary oscillator extend substantially in the same plane, with the movement of the primary oscillator and/or of the secondary oscillator also taking place in this plane.

Abstract: Disclosed are sunscreen compositions comprising zinc oxide and at least one of an effective amount of carbomer and an effective amount of C10 to C30 alkyl acrylate crosspolymers. The compositions most preferably utilize an oil in water emulsion. Also disclosed are related processes for producing and using such compositions.

Abstract: A rotational rate gyroscope for detecting rotation thereof comprises a base member, a primary oscillator supported by its primary oscillator suspension so as to be movable with respect to the base member, and a secondary oscillator supported by a secondary oscillator suspension, separate from primary oscillator suspension, so as to be movable with respect to the primary oscillator. The secondary oscillator suspension is designed such that movement that can be applied to the primary oscillator can be transferred to the secondary oscillator, whereas the movement of the secondary oscillator effected by the Coriolis force substantially is not transferred back to the primary oscillator. In addition thereto, the major surfaces of the primary oscillator and of the secondary oscillator extend substantially in the same plane, with the movement of the primary oscillator and/or of the secondary oscillator also taking place in this plane.

Abstract: An interference filter having a layer with an area consisting of a porous material extending from the surface of the layer to the interior, the dimensions of the porous layer area in a direction normal to the layer surface have different values to provide for varying reflection or, respectively, transmission characteristics.

Abstract: In an interference filter having a layer with an area consisting of a porous material extending from the surface of the layer to the interior, the dimensions of the porous layer area in a direction normal to the layer surface have different values to provide for varying reflection or, respectively, transmission characteristics.

Abstract: A rotational rate gyroscope (100) for detecting rotation thereof comprises a base member (102), a primary oscillator (106) supported by its primary oscillator suspension (104) so as to be movable with respect to the base member (102), and a secondary oscillator (114) supported by a secondary oscillator suspension (112), separate from primary oscillator suspension (104), so as to be movable with respect to the primary oscillator (106). The secondary oscillator suspension (112) is designed such that movement that can be applied to the primary oscillator (106) can be transferred to the secondary oscillator (114), whereas the movement of the secondary oscillator (114) effected by the Coriolis force substantially is not transferred back to the primary oscillator (106).

Abstract: A process for the production of electroluminescent silicon structures, including: placing a silicon wafer in an acid bath; anodizing the silicon wafer in the acid bath using the apparatus of FIG. 2; illuminating the anode side of the silicon wafer during at least part of the time the silicon wafer is being placed in the acid bath and is being anodized; causing at least some areas of the monocrystalline silicon of the silicon wafer to be converted into a microporous silicon layer; and forming two contacts by means of which a voltage can be applied to the microporous silicon layer.