Abstract: An arrangement for measuring a force and/or a torque using the inverse-magnetostrictive effect includes a workpiece made from steel as a primary sensor for a measurement of a force and/or a torque using the inverse-magnetostrictive effect. The arrangement includes a machine element on which the force or the torque acts, which causes mechanical stress and the machine element is usually slightly deformed. The machine element is formed of steel and has at least one magnetostrictive area for a magnetization, which forms a primary sensor for measuring the force and/or the torque. The arrangement further includes at least one magnetic field sensor for measuring a magnetic field caused by the magnetization and also by the force and/or by the torque. The magnetic field sensor forms a secondary sensor for measuring the force and/or the torque.

Abstract: The invention relates to a flange assembly which takes up little installation space yet is nevertheless able to transfer high torques. According to the invention the flange assembly (5) includes a flange section (11) and a receiving section (6), wherein the flange section (11) is connected to the receiving section (6), to a holding body (10) and to a coupling body (7), wherein the holding body (10) is connected to the receiving section (6), wherein the holding body (10) is arranged in the axial direction between the coupling body (7) and the flange section (11), wherein the coupling body (7) is supported in the axial direction on the holding body (10), wherein the coupling body (7) and the flange section (11) are connected to one another in the axial direction and wherein the flange section (11) is connected to the receiving section (6) by virtue of the coupling body (7) being supported on the holding body (10).

Abstract: Roll stabilizers as an example for chassis actuators are used for compensating or suppressing rolling movements of a vehicle about its longitudinal axis. Such rolling movements are caused, in particular, when driving around curves due to centrifugal forces. A chassis actuator device is provided, in particular, a roll stabilizer, for a vehicle with a flange connection between an actuator and a stabilization component. A holder-side positive-locking contour is arranged on a holder section of the flange connection and a flange-side positive-locking contour is arranged on a flange. The positive-locking contours together form a positive-locking connection in the circumferential direction about a torsion axis A, and the flange-side positive-locking contour is arranged on a flange-side lateral surface and/or the holder-side positive-locking contour is arranged on a holder-side lateral surface.

Abstract: Roll stabilizers as an example for chassis actuators are used for compensating or suppressing rolling movements of a vehicle about its longitudinal axis. Such rolling movements are caused, in particular, when driving around curves due to centrifugal forces. A chassis actuator device is provided, in particular, a roll stabilizer, for a vehicle with a flange connection between an actuator and a stabilization component. A holder-side positive-locking contour is arranged on a holder section of the flange connection and a flange-side positive-locking contour is arranged on a flange. The positive-locking contours together form a positive-locking connection in the circumferential direction about a torsion axis A, and the flange-side positive-locking contour is arranged on a flange-side lateral surface and/or the holder-side positive-locking contour is arranged on a holder-side lateral surface.

Abstract: A suspension actuator (1) for positioning a movably mounted component of a motor vehicle suspension, including a first actuator component (4), which is to be connected to the movably mounted component, and a second actuator component (3), which is to be connected to a fixed suspension component, wherein both actuator components can be axially adjusted relative to one another via a ball-type linear drive (5), which includes a threaded spindle (6) and a nut (7) running thereon. Either the nut can be driven via a drive motor (10) for the axial adjustment of the threaded spindle or the spindle can be driven via a drive motor for axial adjustment of the nut.

Abstract: A suspension actuator (1) for positioning a movably mounted component of a motor vehicle suspension, including a first actuator component (4), which is to be connected to the movably mounted component, and a second actuator component (3), which is to be connected to a fixed suspension component, wherein both actuator components can be axially adjusted relative to one another via a ball-type linear drive (5), which includes a threaded spindle (6) and a nut (7) running thereon. Either the nut can be driven via a drive motor (10) for the axial adjustment of the threaded spindle or the spindle can be driven via a drive motor for axial adjustment of the nut.

Abstract: A method of producing a gas generator includes arranging an igniter in an inner chamber surrounded by a housing of the gas generator. The igniter is supported in a first direction on a part of the gas generator and in the first direction opposite a mounting orifice of the housing. The method includes arranging a sealing element in the mounting orifice to seal the mounting orifice. The sealing element presses over a bearing area deformable in the first direction with a force acting in the first direction against a first bearing area of the igniter and forms a gas-tight joint between the sealing element and the igniter. A side of the sealing element facing the part of the gas generator in the first direction abuts against a side of the part of the gas generator to limit deformation of the bearing area of the sealing element in the first direction.

Abstract: A method of producing a gas generator includes arranging an igniter in an inner chamber surrounded by a housing of the gas generator. The igniter is supported in a first direction on a part of the gas generator and in the first direction opposite a mounting orifice of the housing. The method includes arranging a sealing element in the mounting orifice to seal the mounting orifice. The sealing element presses over a bearing area deformable in the first direction with a force acting in the first direction against a first bearing area of the igniter and forms a gas-tight joint between the sealing element and the igniter. A side of the sealing element facing the part of the gas generator in the first direction abuts against a side of the part of the gas generator to limit deformation of the bearing area of the sealing element in the first direction.

Abstract: A clamping device includes a first clamping plate and a second clamping plate, the first clamping plate being rotatable between a released position and a clamped position in relation to the second clamping plate. The clamping device further includes a rolling body which establishes contact between the first and second clamping plates. The second clamping plate includes a clamping ramp with a contour for the rolling body so that when the clamping plates are rotated in relation to each other, the space between the clamping plates changes. The first clamping plate has a surface which forms a plane on which the rolling body rolls from the released position to the clamped position.

Abstract: A vehicle roll stabilizer for the chassis of a motor vehicle is provided, with its actuator (3, 38) being energized with independent energy, as necessary, for counteracting a roll. The actuator (3, 38) is provided with at least one additional energy accumulator (33a, 57), with its stored energy additionally counteracting the roll.

Abstract: The invention relates to a roll stabilizer for the chassis of a motor vehicle, comprising an actuator (3), which is mounted between anti-roll bar halves (1, 2) and which rotates these about a rotation axis in opposite directions as necessary. The curved path carriers (4, 5) of the actuator that are assigned to the roll stabilizer halves (1, 2) are each provided with a curved path (17, 18) inside of which a coupling element (13) is guided that can be displaced along these curved paths (17, 18) via an actuating drive (7, 10). The U-shaped or V-shaped curved path (18) of one curved path carrier (5) has two curved path branches (19, 20) that are arranged in a mirror symmetric manner in relation to a longitudinal central plane containing the rotation axis of the actuator (3).

Abstract: The application describes a clamping device for a steering column, in which a first clamping plate element is rotatable between a released position and a clamped position in relation to a second clamping plate element, wherein a rolling body which establishes contact is provided between the clamping plate elements. The second clamping plate element comprises a clamping ramp with a contour for the rolling body so that when the clamping plate elements are rotated in relation to each other, the space between the clamping plate elements changes. One clamping plate element comprises a surface which forms a plane on which the rolling body rolls from the released position to the clamped position.

Abstract: A vehicle roll stabilizer for the chassis of a motor vehicle is provided, with its actuator (3, 38) being energized with independent energy, as necessary, for counteracting a roll. The actuator (3, 38) is provided with at least one additional energy accumulator (33a, 57), with its stored energy additionally counteracting the roll.

Abstract: The invention relates to a roll stabilizer for the chassis of a motor vehicle, comprising an actuator (3), which is mounted between anti-roll bar halves (1, 2) and which rotates these about a rotation axis in opposite directions as necessary. The curved path carriers (4, 5) of the actuator that are assigned to the roll stabilizer halves (1, 2) are each provided with a curved path (17, 18) inside of which a coupling element (13) is guided that can be displaced along these curved paths (17, 18) via an actuating drive (7, 10). The U-shaped or V-shaped curved path (18) of one curved path carrier (5) has two curved path branches (19, 20) that are arranged in a mirror symmetric manner in relation to a longitudinal central plane containing the rotation axis of the actuator (3).