Abstract: A torsional vibration damper includes an input part for introducing a torque, two intermediate elements, an energy storage element designed as a compression spring that acts on the intermediate elements, an output part for discharging a vibration-damped torque, and an elastic or resilient compensation part provided between the output part and the intermediate elements. The intermediate elements are designed as pendulum rockers and are movement-coupled to the input part. Each of the intermediate elements can move towards and away from the other in a linear motion. The output part is movement-coupled to the intermediate elements and rotatable relative to the intermediate elements. The compensation part is for eliminating play of the intermediate elements relative to the output part in an axial direction.

Abstract: A torsional vibration damper includes an input part for introducing a torque, two intermediate elements, an energy storage element designed as a compression spring that acts on the intermediate elements, an output part for discharging a vibration-damped torque, and an elastic or resilient compensation part provided between the output part and the intermediate elements. The intermediate elements are designed as pendulum rockers and are movement-coupled to the input part. Each of the intermediate elements can move towards and away from the other in a linear motion. The output part is movement-coupled to the intermediate elements and rotatable relative to the intermediate elements. The compensation part is for eliminating play of the intermediate elements relative to the output part in an axial direction.

Abstract: A damper device, preferably for a torque converter of a motor vehicle, for transferring torque between a drive side and output side of the device, having an input element which is rotatable to a limited degree in relation to an intermediate element which is located after the input element in a torque transfer path through an effect of a first energy storage element, while forming a first damper stage, and an output element located after the intermediate element in the torque transfer path, which is rotatable to a limited degree in relation to the intermediate element through an effect of a second energy storage element, while forming a second damper stage, wherein the damper device, or the first damper stage and/or the second damper stage is designed in such a way that the first damper stage and/or the second damper stage can essentially be short-circuited mechanically by means of bridging.

Abstract: The present invention broadly comprises a stator and clutch assembly in a torque converter. The stator has a segment radially disposed between stator blades and a stator axis. The one-way clutch has a plate connected to a hub. The segment forms a portion of the clutch and the stator is axially displaceable to control operation of the clutch. A displacement element urges the stator in a first axial direction. The stator is arranged to move in a second axial direction, opposite the first axial direction, in response to pressure from fluid in the torque converter. In some aspects, the displacement element is selected from the group consisting of a coil spring and a wave spring. In some aspects, the one-way clutch is arranged to disengage when the stator is sufficiently displaced in the first direction and to engage when the stator is sufficiently displaced in the second direction.

Abstract: A joined component, in particular a rotation symmetrical component for connecting to another second joined component into a unit for creating a continuous material, non-disengageable connection through compression welding, comprising a joined surface and a joint portion, provided at the joined surface, for contacting the other, second joined component. A recess for receiving weld bead material is provided at the joined surface around the joint portion.

Abstract: A joined component, in particular a rotation symmetrical component for connecting to another second joined component into a unit for creating a continuous material, non-disengageable connection through compression welding, comprising a joined surface and a joint portion, provided at the joined surface, for contacting the other, second joined component. A recess for receiving weld bead material is provided at the joined surface around the joint portion.

Abstract: The present invention broadly comprises a stator and clutch assembly in a torque converter. The stator has a segment radially disposed between stator blades and a stator axis. The one-way clutch has a plate connected to a hub. The segment forms a portion of the clutch and the stator is axially displaceable to control operation of the clutch. A displacement element urges the stator in a first axial direction. The stator is arranged to move in a second axial direction, opposite the first axial direction, in response to pressure from fluid in the torque converter. In some aspects, the displacement element is selected from the group consisting of a coil spring and a wave spring. In some aspects, the one-way clutch is arranged to disengage when the stator is sufficiently displaced in the first direction and to engage when the stator is sufficiently displaced in the second direction.