The invention provides a vehicle suspension system, comprising a jounce bumper made of elastomeric thermoplastic material, having improved design to maximize energy absorption.

The invention provides a vehicle suspension system, comprising a jounce bumper made of elastomeric thermoplastic material, having improved design to maximize energy absorption.

A vehicle suspension system includes a suspension arm connected to a vehicle frame or body. A wheel is supported by the suspension arm and a shock absorber is connected between the vehicle frame or body and the suspension arm. The shock absorber includes a first mounting fitting having a first connecting structure, a second mounting fitting having a second connecting structure and a monolithic elastomeric body molded around the first connecting structure and the second connecting structure.

A vehicle suspension system includes a suspension arm connected to a vehicle frame or body. A wheel is supported by the suspension arm and a shock absorber is connected between the vehicle frame or body and the suspension arm. The shock absorber includes a first mounting fitting having a first connecting structure, a second mounting fitting having a second connecting structure and a monolithic elastomeric body molded around the first connecting structure and the second connecting structure.

A vehicle is provided with a vehicle frame or sub-frame structure and at least one of a body structure and engine structure or a plurality of suspension components mounted to the vehicle frame or sub-frame structure and a plurality of fluid-controlled spring/dampers supporting the least one of a body structure and engine structure or a plurality of suspension components to the vehicle frame of sub-frame structure, the plurality of fluid-controlled spring/dampers being connected to a single central pump.

Provided herein is a jounce bumper (18) for mounting in a vehicle suspension system (2) comprising a shock absorber (6), the jounce bumper (18) having a central bore (20) extending in an axial direction (A). The jounce bumper (18) comprises an elastically compressible bumper portion (24) comprising a plurality of convolutes stacked in an axial direction (A) of the jounce bumper (18), each convolute comprising a crest (26) and a root (28). A cross-section of the compressible portion (24) perpendicular to the axial direction (A) is non-circular, the non-circular shape being configured to provide a variable compression resistance in relation to an axial compression displacement (Cd) of the jounce bumper (18).

Provided herein is a jounce bumper (18) for mounting in a vehicle suspension system (2) comprising a shock absorber (6), the jounce bumper (18) having a central bore (20) extending in an axial direction (A). The jounce bumper (18) comprises an elastically compressible bumper portion (24) comprising a plurality of convolutes stacked in an axial direction (A) of the jounce bumper (18), each convolute comprising a crest (26) and a root (28). A cross-section of the compressible portion (24) perpendicular to the axial direction (A) is non-circular, the non-circular shape being configured to provide a variable compression resistance in relation to an axial compression displacement (Cd) of the jounce bumper (18).

A vehicle load-bearing member includes an electro-active material, a lead wire for delivering an electric current to the electro-active material, and a controller in communication with a power supply for supplying electric current to the electro-active material for changing dynamic characteristics of the electro-active material, wherein changing dynamic characteristics of the electro-active material changes at least one of dampening and stiffness of the vehicle load-bearing member by changing the shape of the electro-active material.

A motor vehicle having: running gear having a chassis and wheel suspensions, which include longitudinal and transverse links for attaching wheels to the chassis; a body having an underfloor and/or an underfloor paneling, the underfloor and/or the underfloor paneling exposing the links; paneling for the links having a recess for air to cool a brake; and a flow guide upstream of a respective paneling. The flow guide is connected to the underfloor or to underfloor paneling and which, together with the respective paneling, divides up the air flow into: a first air flow, which can be fed, upstream of the recess, via a first flow channel of the respective paneling to a first region of the brake, and into a second air flow, which can be fed via the recess of the respective paneling and a second flow channel of the respective paneling to a second region of the brake.

A motor vehicle having: running gear having a chassis and wheel suspensions, which include longitudinal and transverse links for attaching wheels to the chassis; a body having an underfloor and/or an underfloor paneling, the underfloor and/or the underfloor paneling exposing the links; paneling for the links having a recess for air to cool a brake; and a flow guide upstream of a respective paneling. The flow guide is connected to the underfloor or to underfloor paneling and which, together with the respective paneling, divides up the air flow into: a first air flow, which can be fed, upstream of the recess, via a first flow channel of the respective paneling to a first region of the brake, and into a second air flow, which can be fed via the recess of the respective paneling and a second flow channel of the respective paneling to a second region of the brake.