A strut mount includes: an inner member coupled to a suspension; an outer bracket having an outer cylinder portion housing the inner member, and a flange portion protruding radially outward from the outer cylinder portion and coupled to a vehicle body; an elastic member interposed between the inner member and the outer cylinder portion; and a seal member interposed between the flange portion and the vehicle body. The seal member includes an annular portion located between the flange portion and the vehicle body, and a first downward extending portion extending downward from an outer peripheral portion of the annular portion toward the opposite side from the vehicle body. The flange portion includes a placement surface portion which faces toward the vehicle body and on which the annular portion is placed, and a first sidewall portion extending from an outer peripheral portion of the placement surface portion to the opposite side from the vehicle body. A first engaging portion of the first downward extending portion and a first engaged portion of the first sidewall portion are engaged with each other to reduce axial movement of the annular portion placed on the placement surface portion.

A suspension for a vehicle, includes a coil spring interposed between a vehicle body and an axle. An end turn portion on at least one end of the coil spring is covered by a viscoelastic material.

A spring damper apparatus for a vehicle, with a hydropneumatic system, via which a wheel of the vehicle can be braced spring-mounted and damped on a body of the vehicle. The hydropneumatic system includes a first chamber delimited at least partially by a partition element, in which a fluid acting on the partition element is accommodated. In addition, the hydropneumatic system includes a second chamber separated from the first chamber by the partition element and delimited by the partition element, in which a gas forming a gas spring and acting on the partition element is accommodated. In addition, the hydropneumatic system includes a housing in which the fluid is accommodated. In addition, the hydropneumatic system includes a piston shiftably accommodated in the housing and acting on the fluid, via which piston the wheel can be braced on the body.

A strut assembly for a vehicle may include an insulator part connected to a vehicle body, a piston rod coupled to the insulator part, a damper cylinder coupled with the piston rod and having an operating fluid accommodated therein, a strike cap coupled to the upper portion of the damper cylinder, and a sliding part formed on the side surface of the strike cap. In the strut assembly, a dust cover is coupled to the sliding part. In addition, the sliding part includes one or more side surface holes formed on the side surface of the strike cap, a sliding protrusion coupled with the dust cover and mounted in each of the side surface holes, and a guide part formed in each of the side surface holes for restraining the sliding protrusion.

An electric vehicle includes a suspension and powertrain unit having a vehicle frame module, an electric motor unit carried by the frame module centrally between two wheels and a suspension including, for each wheel, an upper oscillating arm and a lower oscillating arm carrying a respective wheel support. Each wheel support rotatably supports a respective wheel hub connected to the electric motor unit by a respective drive shaft. Brake discs are mounted on two output shafts of the electric motor unit, at a distance from the respective wheels, and are connected by drive shafts to the hubs of the two wheels. Thanks to the absence of brake discs adjacent to the wheel hubs, swivel joints connecting each wheel support to the respective upper and lower arms can be arranged so as to define a steering axis passing through a respective wheel center and thereby having a substantially zero kingpin offset.

A strut assembly for a vehicle may include an insulator part connected to a vehicle body, a piston rod coupled to the insulator part, a damper cylinder coupled with the piston rod and having an operating fluid accommodated therein, a strike cap coupled to the upper portion of the damper cylinder, and a sliding part formed on the side surface of the strike cap. In the strut assembly, a dust cover is coupled to the sliding part. In addition, the sliding part includes one or more side surface holes formed on the side surface of the strike cap, a sliding protrusion coupled with the dust cover and mounted in each of the side surface holes, and a guide part formed in each of the side surface holes for restraining the sliding protrusion.

Provided is a trailing arm riding mower suspension system that includes trailing arms adapted to support hydraulic motor units and having leading ends pivotally coupled to a mower frame by way of leading end spherical joints and trailing ends having hydraulic drive unit mounts, where the trailing arms are adapted to pivot about leading end pivot locations defined by the leading end spherical joints.

A vehicle wheel assembly includes a wheel, a tire supported by the wheel, an internal space defined by the wheel, a wheel hub that is rotatably connected to the wheel and is located in the internal space, and a mass actuator that is connected to the wheel hub and located in the internal space.

A device for adjusting the height of a motor vehicle body (3), including an actuator (1) for actuating a vertically adjustable spring seat of a suspension spring (15), characterized in that a pin (4) is provided for connecting the device to the vehicle body (3), an actuator side pin section (10) extends through a support eye (6) in a support plate (7) of the actuator (1), and an elastomer support (2) is disposed at least on the face of the support plate (7) facing the vehicle body, between the support plate (7) and a flange (9) provided on the bolt (4).

A vehicle suspension assembly includes a mounting bracket adapted to couple to a vehicle frame assembly, a trailing arm having a first end pivotably coupled to the first mounting bracket, and a second end, an axle member coupled to the second end of the trailing arm, the axle member configured to support a tire, an actuator operably coupled to the trailing arm and operable between a first state configured to lift the tire away from a ground surface and a second state configured for the tire to contact the ground surface, and an actuator arrangement configured to move from a first position where the actuator arrangement couples the actuator to the trailing arm when the actuator is in the first state, and a second position where the actuator arrangement uncouples the actuator from the trailing arm when the actuator is in the second state.