Abstract: A torsional vibration damper (10) with a torque limiter includes an input part (14), an output part (18), and at least two torque-transmitting intermediate elements (20) arranged between the input part (14) and the output part (18) so as to move radially by cam mechanisms (22) in the case of a relative rotation of the input part (14) and the output part (18). In the case of a relative rotation between the input part and the output part, a torsional characteristic curve (32) of a drive torque over the rotary angle has a damper stage (34) and an end stage (36) which adjoins the damper stage (34), he damper stage (34) specifies a damper capacity of the drive torque over the rotary angle, and the end stage (36) includes a torque limitation of the drive torque over the rotary angle.

Abstract: A powertrain mechanism in a vehicle having an internal combustion engine. The powertrain mechanism is provided for transmitting power from the engine to a gearbox. The mechanism includes at least one drive plate and at least one connection hub. The hub has an assembly section disposed in at least one assembly opening provided in the vicinity of the center of the drive plate. At least one protrusion upper section defines at an uppermost section of at least one protrusion provided mutually on an inner wall of the assembly opening and on an outer wall of the assembly section. At least one recess base defines at a lowermost section of at least one recess wherein the at least one protrusion is at least partially placed. The powertrain mechanism further includes at least one movement gap provided between the protrusion upper section and the recess base.

Abstract: The present disclosure provides an input damper for coupling to a torque-generating mechanism. The damper includes an outer cover, a hub, and a carrier assembly coupled to the hub. The carrier assembly is movably disposed within the cover. A clutch assembly moves between an engaged position and a disengaged position. The input damper further includes an angular displacement mechanism operably coupled to the clutch assembly for moving the clutch assembly between the engaged position and disengaged position. A damper spring is disposed between the outer cover and the clutch assembly. The outer cover is coupled to the carrier assembly in the engaged position.

Abstract: The present invention broadly comprises a vibration damper assembly for a torque transmitting device. The assembly includes a thrust washer secured by first and second components of a vibration damper and a hub secured by the first and second components. The vibration damper, thrust washer, and hub are secured in a fixed position with respect to one another. In some aspects, the torque transmitting device comprises a longitudinal axis and the thrust washer comprises a hub segment having substantially a toroidal shape and at least one retainer segment extending outward, with respect to the axis, from the hub segment. At least a portion of the at least one retainer segment is disposed between the first and second components.

Abstract: A clutch support for supporting a clutch hub of a clutch such that the clutch hub is rotatable is described. The clutch hub comprises a flange that is fixable at clutch housing or the like; a substantially cylindrical element for receiving the clutch hub such that the clutch hub is rotatable; and a sleeve with at least one groove formed therein for providing at least one channel that allows oil to be supplied to the clutch through this channel. The sleeve is manufactured substantially without any chip removing machining action. This achieves the goal to provide a clutch support that can be manufactured in a simple manner and at comparatively low cost.

Abstract: The invention relates to a torsion vibration damper having a main damper containing energy accumulators and a friction device, as well as a preliminary damper containing energy accumulators and a friction device.

Abstract: A torque can be transmitted by a bushing 101 located between a pair of torque transmitting members. The bushing 101 is constructed out of resin and metal such that the part made of resin does not significantly contact the torque transmitting members. The bushing 101 includes an annular portion 102 made of resin and a connecting portion 103 made of metal. The connecting portion 103 is molded in an annular portion 102. The connecting portion 103 has parts (117 and 118), which are connected with the torque transmitting members so as to be able to transmit a torque therebetween. In a preferred embodiment, the bushing 101 is part of a dampening mechanism 6, which generates a friction between a hub flange 18 and a hub 3 when both of the portions rotate relatively. The bushing 101 supports a plurality of springs 21 to elastically couple a fixing plate 20 of the hub flange 18 to the hub 3. The bushing 101 rotates with the hub 3, while the fixing plate 20 rotates with the hub flange 18.

Abstract: A torsion damping device couples together an input element, such as a clutch friction wheel, and an output element comprising a hub. The damping device comprises a main damper and a predamper. The main damper comprises two guide rings arranged axially on either side of a damper plate. Each of the two dampers includes an axially acting friction device, and the damper plate meshes, with a circumferential clearance, with the periphery of a hub ring formed on the outer periphery of the hub. Both of the friction devices are incorporated in a single component, which comprises a first friction ring surrounding a second friction ring, and which includes radial arms which join the two friction rings together in such a way that the friction rings rotate together but are displaceable axially with respect to each other due to axial deformability of the radial arms.

Abstract: A torsional vibration damper includes a hub element, and a hub-disk assembly which is mounted on the hub element by means of a bearing assembly. The bearing assembly is prestressed by a first prestressing arrangement in the bearing seat against the hub element. The hub-disk assembly has a first transmission and a second transmission, which is rotatable about an axis of rotation in relation to the first transmission arrangement, and a first damping arrangement, preferably a damping spring, which acts between the first and the second transmission arrangements. A friction device generates a friction damping force at a relative rotation between the first and second transmissions. The friction device includes at least one friction element which is acted upon by a second prestressing arrangement and is displaceable on at least one transmission arrangement of the first and second transmission arrangements at a relative rotation with generation of the friction damping force.

Abstract: A torsional vibration damper has a drive-side transmission element and an output-side transmission element rotatable relative thereto. The output-side transmission element is centered relative to the drive-side transmission element via a radial slide bearing and can be held at a predeterminable axial distance from the drive-side transmission element by means of an axial slide bearing. The axial slide bearing has an inner circumference larger than the outer circumference of the radial slide bearing and rests, on the one hand, on at least one component of the first transmission element acting on the outer circumference of the radial slide bearing and, on the other, on at least one component of the other transmission element arranged on the inner circumference of the radial slide bearing, so as to form, together with these components, a covering for the radial slide bearing, by which the latter can be protected against an unwanted afflux of solid particles.

Abstract: A clutch disk for a motor vehicle, in which a centering force is applied between the input parts and the output parts in operating states in which the input parts, relative to the output parts, carry out a wobbling movement or undergo a radial displacement, a spring element arranged between one cover plate and the hub disk and which is centered directly or indirectly at the cover plate or hub disk. A bearing ring is arranged with an outer contour between the spring tongues and the bearing region of the hub. The inner contour of a structural component part of the one coverplate is arranged at a distance from this outer contour for determining the movement play of the spring tongues of the spring element.

Abstract: A clutch disk assembly includes two pieces of friction facings, cushioning plates 12, clutch plate 3, retaining plate 4, a plurality of connecting pins 11, hub and rivets 17. The cushioning plates 12 are disposed side by side in a circular direction between two pieces of friction facings. Each of the cushioning plates 12 includes a cushioning part 16 disposed between two pieces of friction facings, and an installation part 15 in which two holes 15a are formed apart each other in a circular direction. The connecting pins 11 fixedly couple the outer circumferential portions of plates 3 and 4 to each other. The rivets 17 are inserted in the holes 15a to fix the cushioning plates 12 to the outer circumferential edge of the clutch plate 3. The locations of the connecting pins 11 in a circular direction are located between two adjacent holes 15a of the cushioning plates 12 in a circular direction. The locations of the connecting pins 11 reduce the stresses in the installation parts 15 of the cushioning plates 12.

Abstract: A clutch disk with two structural component groups which are arranged so as to be swivelably movable and radially movable relative to another within a defined scope by the intermediary of a guide element which is constructed as a helical spring and which is arranged concentric to the hub and whose turns--considered in the axial direction--are inclined at least in the installed state.

Abstract: A clutch disc assembly is provided with a support structure and friction generating members that provide generally constant friction generation, even when misalignment occurs between adjacent members. The clutch disc assembly 1 includes a hub 2, a fourth friction washer 19, a clutch plate 3 and a second coil spring 7. The fourth friction washer 19 is fixed to the hub 2 and has a tapered surface 19a. The clutch plate 3 has an inner peripheral edge tapered portion 3c which is abutted against the tapered surface 19a and disposed on the outer periphery of the hub 2. The second coil spring 7 couples the hub 2 to the clutch plate 3 in a circumferential direction.

Abstract: A clutch disc assembly is provided with a support structure and friction generating members that provide generally constant friction generation, even when misalignment occurs between adjacent members. The clutch disc assembly 1 includes a hub 2, a fourth friction washer 19, a clutch plate 3 and a second coil spring 7. The fourth friction washer 19 is fixed to the hub 2 and has a tapered surface 19a. The clutch plate 3 has an inner peripheral edge tapered portion 3c which is abutted against the tapered surface 19a and disposed on the outer periphery of the hub 2. The second coil spring 7 couples the hub 2 to the clutch plate 3 in a circumferential direction.

Abstract: A clutch plate in which the support of the hub provides for pivoting as well as radial compliance relative to the remaining components. This support is accomplished by a component, which is centered directly or indirectly on the hub plate of the load compliance, whereby the load springs can be employed for radial compliance of the hub.

Abstract: A flywheel device has at least two inertial masses which can rotate relative to one another against the action of elastic elements of a damping device, one of which inertial masses, namely the output-side inertial mass which is farther from a drive system, such as for example the crankshaft of an internal combustion engine, is guided both radially and axially by way of a bearing arrangement with respect to the input-side inertial mass. The bearing arrangement has at least one axial plain bearing and one radial plain bearing. Both plain bearings guide the output-side inertial mass with respect to the input-side inertial mass with a clearance, the size of which is determined so that when a wobbling motion is introduced from the crankshaft to the input-side inertial mass, the output-side inertial mass, under the effect of centrifugal forces, can perform a self-stabilization.

Abstract: A clutch disc includes an elastic mounting to absorb both wobbling movement and to compensate for axially offsetting transmission components. Between the hub and the components which can rotate with respect to the hub, there is a spring element which makes it possible by means of two different types of fingers to accomplish both a radially elastic centering and an axially elastic clamping. The clutch disc can thereby absorb both wobbling movements and axial offsets.

Abstract: A torsional damper having a disc (4), two guide washers (2,3), a hub (7) and low stiffness sprigs (8). The output member has a stepped annular flange (9) with a lower first area (73) and a second area (74) axially offset relative to the first portion. The second portion has teeth, and a bearing (91) is rotationally locked to the disc (4) to form a housing for the low stiffness springs (8).

Abstract: The damped flywheel comprises two coaxial masses (1, 2) which are mounted for rotation of one with respect to the other against a torsion damper device (3), with one of the masses comprising a central nose (4, 40) projecting axially and penetrating into a central aperture (5, 50, 51) of the other mass, With support member(s) (6) being interposed between the said nose and the said aperture. These member(s) (6) comprise at least one plain bearing (70, 62 to 66) in the form of a hard, semi-crystalline polyetheretherketone material such as ARLON, for the rotary mounting of the mass having the central aperture (5, 50, 51) on the mass having the central nose (4, 40).

Abstract: Torsional vibration damper for a motor vehicle friction clutch, the torsional vibration damper having a hub with a hub disc, and cover plates located one on either side of the hub disc, which cover plates are fastened together. The cover plates can be rotated with respect to the hub disc against the force of springs by a specified amount, whereby the radial guidance of the parts which can rotate in relation to one another is provided by preferably one cover plate and a bearing element inserted in a central hole of the cover plate. The bearing element permits a limited radial relative movement of the cover plate with respect to the hub, is designed so that in addition to an axial offset, it can also compensate for an angular offset between the crankshaft and the transmission shaft.

Abstract: A clutch plate having a hub and hub disc which are manufactured from two individual parts, wherein the two parts are non-rotationally connected by means of gear teeth so that there is essentially no play in the circumferential direction. Either the lining carrier or cover plate or both can thereby be guided with respect to a guide diameter of the hub by means of a plastic metal friction or sliding pair.

Abstract: A clutch disc with a bearing element on the inside diameter of the one cover plate. The bearing element has a rectangular cross section and is fixed by means of its one axial end surface to guide areas of the cover plate which extend radially.

Abstract: A clutch disc with a torsion damping device for low torques and a torsion damping device for large torques, in which the input part or the output part of one of the two torsion damping devices, with an essentially tubular extension which runs axially, is placed on a cylindrical guide diameter of the hub which is oriented concentrically to the axis of rotation. The extension is thereby used to stabilize the hub in the radial direction when torque is applied.

Abstract: The invention relates to a torsion vibration damper having a main damper containing energy accumulators and a friction device, as well as a preliminary damper containing energy accumulators and a friction device.