Abstract: According to the embodiment of the present disclosure, a hydraulic bearing (1) is provided, comprising an inner core (2), an outer shell (3) which radially surrounds the inner core (2), an elastomer body (4) which resiliently interconnects the inner core (2) and the outer shell (3) in order to allow a relative displacement between the inner core (2) and the outer shell (3), a first working chamber (5) and a second working chamber (6) which are fluidically interconnected by means of a working channel, a bypass chamber (8) which is connected to the first working chamber (5) by means of a first bypass channel (9), wherein the first working chamber (5) and the second working chamber (6) are configured such that an amount of a volume change in the case of a displacement of the inner core (2) relative to the outer shell (3), in a predetermined radial direction, is larger for the first working chamber (5) than for the second working chamber (6).

Abstract: A switchable hydraulic mount includes a first fluid chamber delimited by a spring body, a second fluid chamber fluidically connected to the first fluid chamber, a decoupling element for decoupling the chambers, and arranged between the first fluid chamber and a decoupling chamber, the chambers being fluidically separated from one another, and a switchable valve to selectively open or close the decoupling chamber with respect to the environment, the switchable valve including a valve housing with a linear actuator including an actuator head displaceable in the valve housing between closed and open positions, the valve housing including at least one valve opening which, in the open position, connects the decoupling chamber to the environment and which, in the closed position, is closed by the actuator head, and the valve opening including at least a component of extension transverse with respect to the movement axis of the actuator head.

Abstract: A hydroelastic bearing is provided. The hydroelastic bearing includes a spring function member and an outer sleeve coupled to the spring function member, wherein the spring function member includes an inner mounting connection and at least two working chambers which are filled with a damping fluid and which are connected via at least one damping channel, so that the damping fluid flows from one of the working chambers at least partly to the other via the at least one damping channel upon displacement of the inner mounting connection with respect to the outer sleeve, wherein the working chambers are further connected via at least one decoupling channel, wherein a decoupling element is arranged in a flow path of the decoupling channel, and wherein the decoupling channel and the decoupling element are at least partly arranged in a decoupling recess in the outer sleeve provided therefor.

Abstract: A switchable hydraulic mount includes a first fluid chamber delimited by a spring body, a second fluid chamber fluidically connected to the first fluid chamber, a decoupling element for decoupling the chambers, and arranged between the first fluid chamber and a decoupling chamber, the chambers being fluidically separated from one another, and a switchable valve to selectively open or close the decoupling chamber with respect to the environment, the switchable valve including a valve housing with a linear actuator including an actuator head displaceable in the valve housing between closed and open positions, the valve housing including at least one valve opening which, in the open position, connects the decoupling chamber to the environment and which, in the closed position, is closed by the actuator head, and the valve opening including at least a component of extension transverse with respect to the movement axis of the actuator head.

Abstract: A thrust bearing for a pressurized shock absorber has an inner sleeve, an outer sleeve and an elastomer body. The elastomer body connects the inner sleeve and the outer sleeve and is configured to delimit a pressurizable space of the shock absorber. The elastomer body has at least one sealing geometry on the inner sleeve and/or on the outer sleeve.

Abstract: A spring functional component for a hydroelastic bearing (1), comprising an inner mounting connection and comprising an outer mounting connection that radially surrounds the inner mounting connection, comprising a spring body which at least partially delimits at least two working chambers (21, 23) for receiving a damping fluid and which couples the inner mounting connection and outer mounting connection to one another in order to permit a relative movement between the inner mounting connection and the outer mounting connection, and comprising a supporting frame (7) which surrounds the inner mounting connection and which is composed of a rigid material such as plastic or metal, wherein each of the at least two working chambers (21, 23) issues into at least one radial opening which is open to the radially outer side of the spring functional component and which can be closed off by a connection part for coupling to the outer mounting connection, wherein at least one radially inwardly extending radial stop is fas

Abstract: A hydroelastic bearing is provided. The hydroelastic bearing includes a spring function member and an outer sleeve coupled to the spring function member, wherein the spring function member includes an inner mounting connection and at least two working chambers which are filled with a damping fluid and which are connected via at least one damping channel, so that the damping fluid flows from one of the working chambers at least partly to the other via the at least one damping channel upon displacement of the inner mounting connection with respect to the outer sleeve, wherein the working chambers are further connected via at least one decoupling channel, wherein a decoupling element is arranged in a flow path of the decoupling channel, and wherein the decoupling channel and the decoupling element are at least partly arranged in a decoupling recess in the outer sleeve provided therefor.

Abstract: A spring functional component for a hydroelastic bearing. The component comprises a mounting inner connection, a mounting outer connection radially surrounding the mounting inner connection, a spring body which delimits at least two working chambers for receiving a damping fluid and couples the mounting inner and outer connections to one another in order to allow a relative movability between the mounting inner and outer connection and a support frame surrounding the mounting inner connection made of a rigid material such as plastic or metal, on which at least one radial stop is held, wherein the radial stop can be displaced from a pre-assembly state, in which a stop end of the radial stop is disengaged with respect to a stop counterpiece on the mounting inner connection side or mounting outer connection side, into a final assembly state in which the stop end engages the stop counterpiece.

Abstract: A thrust bearing for a pressurized shock absorber has an inner sleeve, an outer sleeve and an elastomer body. The elastomer body connects the inner sleeve and the outer sleeve and is configured to delimit a pressurizable space of the shock absorber. The elastomer body has at least one sealing geometry on the inner sleeve and/or on the outer sleeve.

Abstract: A spring functional component for a hydroelastic bearing (1), comprising an inner mounting connection and comprising an outer mounting connection that radially surrounds the inner mounting connection, comprising a spring body which at least partially delimits at least two working chambers (21, 23) for receiving a damping fluid and which couples the inner mounting connection and outer mounting connection to one another in order to permit a relative movement between the inner mounting connection and the outer mounting connection, and comprising a supporting frame (7) which surrounds the inner mounting connection and which is composed of a rigid material such as plastic or metal, wherein each of the at least two working chambers (21, 23) issues into at least one radial opening which is open to the radially outer side of the spring functional component and which can be closed off by a connection part for coupling to the outer mounting connection, wherein at least one radially inwardly extending radial stop is fas

Abstract: A spring functional component for a hydroelastic bearing. The component comprises a mounting inner connection, a mounting outer connection radially surrounding the mounting inner connection, a spring body which delimits at least two working chambers for receiving a damping fluid and couples the mounting inner and outer connections to one another in order to allow a relative movability between the mounting inner and outer connection and a support frame surrounding the mounting inner connection made of a rigid material such as plastic or metal, on which at least one radial stop is held, wherein the radial stop can be displaced from a pre-assembly state, in which a stop end of the radial stop is disengaged with respect to a stop counterpiece on the mounting inner connection side or mounting outer connection side, into a final assembly state in which the stop end engages the stop counterpiece.

Abstract: A device for elastically mounting an engine transmission unit on a motor vehicle body, comprising a motor support, a flange rigidly mountable to the motor vehicle body, defining a longitudinal direction to be aligned with the driving direction, wherein the motor support essentially extends out of the flange in a transverse direction, perpendicular to the longitudinal direction, and is facing the engine transmission unit for forming a mounting area for the engine transmission unit, and an elastomeric body via which the motor support is elastically supported by the flange and which has a vertical support spring to absorb an essentially static load from the weight of the engine transmission unit, the load acting vertically to the longitudinal direction and the transverse direction, wherein the vertical support spring comprises two spring arms inclined towards each other and spreading away from each other in transverse direction.

Abstract: A hydro-elastic operation member is provided for a hydro-elastic bearing for mounting a motor vehicle part like an engine unit to the body of the motor vehicle, comprising a spring body, in particular made of an elastomer material, at least one hydraulic working chamber, a device for attaching the operation member to a support frame fixed to the vehicle body, and a flange facing the motor vehicle part for attaching the operation member to the motor vehicle part, wherein the hydraulic working chamber is delimited by components of the operation member without the support frame. The operation member forms a component unit insertable into the support frame, wherein the attachment device is designed for removing the operation member, attached to the support frame, from the support frame.

Abstract: A device for elastically mounting an engine transmission unit on a motor vehicle body, comprising a motor support, a flange rigidly mountable to the motor vehicle body, defining a longitudinal direction to be aligned with the driving direction, wherein the motor support essentially extends out of the flange in a transverse direction, perpendicular to the longitudinal direction, and is facing the engine transmission unit for forming a mounting area for the engine transmission unit, and an elastomeric body via which the motor support is elastically supported by the flange and which has a vertical support spring to absorb an essentially static load from the weight of the engine transmission unit, the load acting vertically to the longitudinal direction and the transverse direction, wherein the vertical support spring comprises two spring arms inclined towards each other and spreading away from each other in transverse direction.

Abstract: A system for mounting an assembly, such as a motor vehicle engine, on a supporting structure such as a vehicle body. Disposed between the assembly and the supporting structure is a soft mount and/or a soft rubber spring featuring a damping and/or spring excursion along which the soft mount damps and/or adapts the load acting on the assembly. Also, disposed between the supporting structure and the assembly is an actuator which communicates an adaptive reaction force. A displacement of the assembly caused by the load along the damping or spring excursion of the soft mount or of the rubber spring can be cancelled out by a counter motion of the assembly prompted by the actuator.

Abstract: In an elastic insertion bearing for supporting a component extending substantially axially, such as a damper rod for a strut tower on a vehicle body and for fitting in a vehicle body-side mount, comprising a rigid core to which the component can be secured, and an elastomeric body radially surrounding the core, it is provided for that at least two of the outer shell sections radially surrounding the elastomeric body are provided circumferentially spaced away from each other in the unfitted condition and which on being fitted can move each radially on the other such that the circumferential spacing is reduced in precompression of the elastomeric body.

Abstract: In an elastic insertion bearing for supporting a component extending substantially axially, such as a damper rod for a strut tower on a vehicle body and for fitting in a vehicle body-side mount (3), comprising a rigid core to which the component can be secured, and an elastomeric body (17, 117) radially surrounding the core, it is provided for that at least two of the outer shell sections (19, 21, 119, 121) radially surrounding the elastomeric body (17, 117) are provided circumferentially spaced away from each other in the unfitted condition and which on being fitted can move each radially on the other such that the circumferential spacing is reduced in precompression of the elastomeric body (17, 117).

Abstract: A pneumatically regulated classic bearing dampens hydraulically and decouples vibrations of a small amplitude using a freely displaceable element. The bearing can be engaged using a pneumatically activated control chamber, which has a miniature configuration and is located beneath the freely displaceable element, in such a way that the element forms a deformable or displaceable element for the control chamber. In place of a compensation regulation, in the control chamber, a shift to one of three possible, pneumatically determined control states preferably takes place. The states are VENTILATED, CLOSED and PRESSURIZED.

Abstract: A pneumatically regulated elastic bearing dampens hydraulically and decouples vibrations of a small amplitude using a freely displaceable element. The bearing can be engaged using a pneumatically activated control chamber, which has a miniature configuration and is located beneath the freely displaceable element, in such a way that the element forms a deformable or displaceable wall for the control chamber. In place of a compensation regulation, in the control chamber, a shift to one of three possible pneumatically determined control states preferably takes place. The states are VENTILATED, CLOSED and PRESSURIZED.

Abstract: A joint for transmitting shifting forces from a gear-shifting system of a transmission to a transmission drive member includes a pair of joint parts (1, 2) frictionally locked to the transmission drive member and to the gear-shifting system, a coupling (3) mounted between the joint parts (1, 2) and an elastically deforming device. The elastic deforming device is a damper (4) substantially enclosing omnidirectionally the coupling (3) in such manner that when the joint is not transmitting shifting forces, the damper (4) keeps the coupling (3) spaced from the joint parts (1, 2).