Abstract: A hydraulic mount has an upper support member and a lower support member. An upper elastomeric spring and a lower elastomeric spring are disposed between the upper support member and the lower support member to define an upper fluid chamber and a lower fluid chamber. A channel extends between the upper and lower chambers. During compression and extension of the hydraulic mount, fluid transfers between the upper and lower chamber to provide a damping force for the hydraulic mount.

Abstract: A hydraulic mount has an upper support member and a lower support member. An upper elastomeric spring and a lower elastomeric spring are disposed between the upper support member and the lower support member to define an upper fluid chamber and a lower fluid chamber. A channel extends between the upper and lower chambers. During compression and extension of the hydraulic mount, fluid transfers between the upper and lower chamber to provide a damping force for the hydraulic mount.

Abstract: Embodiments of hydraulic mounts for vehicles are provide herein. According to some embodiments, hydraulic mounts may include an outer housing having a central axis extending therethrough, a tubular insert disposed at least partially within the outer housing and in substantial axial alignment with the central axis so as to form an annular cavity therebetween, an inner elastomeric spring and an outer elastomeric spring extending between the flange of the tubular insert and the outer housing, and a diaphragm disposed within the annular cavity.

Abstract: Embodiments of hydraulic mounts for vehicles are provided herein. According to some embodiments, hydraulic mounts may include an inner tubular sleeve having a top washer extending circumferentially from a terminal end of the inner tubular sleeve, the inner tubular sleeve extending along a central axis, a tubular spring support surrounding at least a portion of the inner tubular sleeve and forming an annular cavity therebetween, a bottom cup, a first inner spring, a second inner spring, a channel support, a first outer spring, and a second outer spring.

Abstract: A mount has an inner metal and an outer metal with an elastomeric bushing disposed between them. The elastomeric bushing includes a first pair of interconnected passages to control the damping rate during axial motion and a second, separate pair of interconnected passages to control the damping rate during motion orthogonal to the axial direction.

Abstract: A hydraulic mount has an upper support member and a lower support member. An upper elastomeric spring and a lower elastomeric spring are disposed between the upper support member and the lower support member to define an upper fluid chamber and a lower fluid chamber. A channel extends between the upper and lower chambers. During compression and extension of the hydraulic mount, fluid transfers between the upper and lower chamber to provide a damping force for the hydraulic mount.

Abstract: A mount has an inner metal and an outer metal with an elastomeric bushing disposed between them. The elastomeric bushing includes a first pair of interconnected passages to control the damping rate during axial motion and a second, separate pair of interconnected passages to control the damping rate during motion orthogonal to the axial direction.

Abstract: A mount has an inner metal and an outer metal with an elastomeric bushing disposed between them. The elastomeric bushing includes a first pair of interconnected passages to control the damping rate during axial motion and a second, separate pair of interconnected passages to control the damping rate during motion orthogonal to the axial direction.

Abstract: A hydraulic mount has an upper support member and a lower support member. An upper elastomeric spring and a lower elastomeric spring are disposed between the upper support member and the lower support member to define an upper fluid chamber and a lower fluid chamber. A channel extends between the upper and lower chambers. During compression and extension of the hydraulic mount, fluid transfers between the upper and lower chamber to provide a damping force for the hydraulic mount.

Abstract: A hydraulic mount has an upper support member and a lower support member. An upper elastomeric spring and a lower elastomeric spring are disposed between the upper support member and the lower support member to define an upper fluid chamber and a lower fluid chamber. A channel extends between the upper and lower chambers. During compression and extension of the hydraulic mount, fluid transfers between the upper and lower chamber to provide a damping force for the hydraulic mount.

Abstract: A hydraulic mount has an upper support member and a lower support member. An upper elastomeric spring and a lower elastomeric spring are disposed between the upper support member and the lower support member to define an upper fluid chamber and a lower fluid chamber. A channel extends between the upper and lower chambers. During compression and extension of the hydraulic mount, fluid transfers between the upper and lower chamber to provide a damping force for the hydraulic mount.

Abstract: A vehicle suspension system provides independent suspension for each wheel, with the load on each wheel being supported by a gas spring which has a volume of gas for supporting the load, and a volume of hydraulic fluid through which movement of the wheel is transmitted to the gas. In order to produce substantially constant vehicle handling for all load conditions of the vehicle, the suspension for the rear wheels includes a torsion bar, and a connection is provided between the hydraulic fluid volumes of the rear gas springs to allow flow of hydraulic fluid between the rear gas springs. The fluid may flow freely or through an orifice and relief valve assembly.