Ford Global Technolgoies, LLC

Daniel Mainz

Ralf Hintzen

Friedrich Peter Wolf-Monheim

Rainer Souschek

Thomas Gerhards

Paul Zandbergen

Alberto Girelli Consolaro

Timothy Drotar

Nicole Zandbergen

Robert Spahl

Marc Simon

Martin Saeger

Edmund Halfmann

Raphael Koch

Steve Scott Allen

Theo Kueppers

Brian Chen

Albert Girelli Consolaro

Pascal Brandt

A chassis for an electrically powered vehicle, including a front wheel suspension and a rear wheel suspension, each having longitudinal control arms arranged on both sides and a torsion spring actively connected to the longitudinal control arms. The chassis includes a battery housing receiving a propulsion battery. A front transverse carrier extends between the respective longitudinal control arms of the front wheel suspension, and a rear transverse carrier extends between the respective longitudinal control arms of the rear wheel suspension. The respective transverse carriers are rigidly connected to the battery housing and couple the longitudinal control arms and the torsion spring.

Vehicle chassis for an electrically powered vehicle

A motor vehicle wheel suspension having a wheel carrier connected to the vehicle body or frame. The suspension having a lower transverse link. The wheel carrier connected to the lower transverse carrier at two connection locations. A first connection location on a first side wall of the wheel carrier and second connection location on a second side wall of the wheel carrier. The first connection location including a connector connected to both the lower transverse and the wheel carrier. The second connection location including a connection between the wheel carrier and the lower transverse link.

Motor vehicle wheel suspension

The disclosure concerns a spring assembly with a leaf spring. The leaf spring extends in a vehicle longitudinal axis, supports a vehicle axle and is connected at least indirectly to a vehicle superstructure at a front end and at a rear end. In order to provide a wheel suspension with advantageous springing and damping behavior that is optimized with regard to weight and complexity, according to the disclosure it is provided that at least one damping region, which is at least partially fluid-filled, is integrated in the leaf spring.

Spring assembly for a vehicle suspension

A chassis for an electrically powered vehicle including a front wheel suspension and a rear wheel suspension each having longitudinal control arms arranged on both sides and a torsion spring actively connected to the longitudinal control arms. The chassis includes a battery housing receiving a propulsion battery. A front transverse carrier extends between the respective longitudinal control arms of the front wheel suspension and a rear transverse carrier extends between the respective longitudinal control arms of the rear wheel suspension. The respective transverse carriers are rigidly connected to the battery housing and couple the longitudinal control arms and the torsion spring.

There is provided a control arm comprising a shell-like shell of a first material and a reinforcement of a plastic material, wherein the reinforcement has a flex-element which protrudes therefrom and which can be supported or guided by means of a vehicle structure in order in the event of jounce and/or rebound of the suspension to produce a resilient action equivalent to a conventional spring.

Suspension control arm with integrated resilient element

A wheel suspension link including a structure connection location for connecting the link to a vehicle structure and a wheel carrier connection location connecting the link to a wheel carrier. The structure connection location and wheel carrier connection location arranged on a link member extending along a link plane. The link member including a base member formed in a materially integral manner from a discontinuously reinforced plastic material. The link member including a reinforcement, containing continuous fibers, connected to the reinforced plastic material. In one embodiment, the reinforcement limited with respect to the link plane to a first region of the link member while the base member extends into a second region.

Wheel suspension link

A leaf spring assembly resiliently supporting a wheel carrier on a vehicle body of a motor vehicle. The leaf spring assembly including first and second spring leaves and a clamp having a clamping part exerting a clamping force whereby the first and second spring leaves are held together by the clamp. A bridging part arranged between the first spring leaf and the clamping part transmits at least part of the clamping force from the clamping part to the first spring leaf bridging the second spring leaf and reducing the clamping force exerted thereon.

Motor vehicle leaf spring assembly

A mount located in a wheel housing of a motor vehicle, the mount receiving an upper end of a shock absorber. The mount has a plurality of upper receiving points each mounting point for allowing a different shock absorber orientation.

Shock absorber mount

A motor vehicle rear suspension includes left and right trailing links mounted, at respective forward ends thereof, to a vehicle body for pivoting movement about a transversely-extending axis. The trailing links extend rearward from the axis, and each has a wheel carrier attached thereto adjacent a rear end thereof. Left and right leaf springs are fixed, at respective forward ends thereof, to the vehicle body and extend rearward therefrom alongside and generally parallel with their respective trailing links. Rear ends of the leaf springs contact their respective trailing links and applying spring-force thereto.

Trailing-arm suspension with leaf springs

A suspension for a wheeled vehicle include an axle with a mid-section and an end comprising an upper portion and a lower portion defining a space therebetween, a leaf spring having forward and rear ends attached to vehicle structure and a mid-section retained in the space and secured between the upper and lower portions, and a closure element attached to the axle end and at least partially closing an outboard end of the space. The upper and lower axle portions may be formed integrally with the axle mid-section or may be a separately-formed component secured to the axle. The space tapers from a greater vertical dimension at the outboard end thereof to a smaller vertical dimension at an inboard end thereof, and the leaf spring mid-section is wedged into the space. An intermediate element is disposed between the mid-section and at least one of the upper and lower axle portions.

Leaf spring suspension for wheeled vehicle

The invention relates to a multi-link rear suspension for a motor vehicle, having at least one transverse leaf spring arranged on the motor vehicle to extend in the transverse vehicle direction and having ends which operatively act on left and right wheel carriers to cushion a vehicle structure of the motor vehicle with respect to the wheel-carriers. The transverse leaf spring also serves as a stabilizer, thereby replacing dedicated stabilizer. In order to provide a multi-link rear suspension which is optimized in terms of structural space and which is lightweight, the multi-link rear has exclusively transverse links for guiding the wheel-carriers.

Multi-link suspension for a motor vehicle

A suspension for a wheeled vehicle includes a leaf spring extending longitudinally relative to the vehicle and having first and second lugs protruding downward therefrom. The lugs are spaced from one another a length of the leaf spring to define a pocket therebetween. An axle passes perpendicularly beneath the leaf spring such that a portion of the axle is disposed in the pocket and is clamped between the lugs. The lugs may be fabricated integrally with the leaf spring.

Leaf spring suspension

The present disclosure provides a transverse link for a wheel suspension of a vehicle that includes at least one wheel-side attachment structure and at least one structure-side attachment structure. The wheel-side and structure-side structures are connected to each other by a connection structure which extends therebetween. The connection structure and/or at least one of the attachment structures is/are produced by a generative production method. At least one of the attachment structures is constructed as a generatively produced bushing which has an inner sleeve and an outer sleeve surrounding the inner sleeve. The sleeves are connected to each other by a fold-like structure. The present disclosure further provides a method for producing such a transverse link.

Transverse link for a wheel suspension of a vehicle and method for the production thereof

A wheel suspension unit for a motor vehicle having a longitudinal link, having a first end for pivotable vehicle-side connection, a second end for connection to a wheel carrier, and a blade-like link portion resilient in the direction of the transverse axis (Y) and rigid transversely relative thereto. The wheel suspension reduces the number of components by providing a longitudinal link having a resilient portion resilient toward the longitudinal axis (X), wherein the longitudinal link is at least partially produced from a fiber-reinforced plastics material.

Vehicle wheel suspension

A wheel suspension for a motor vehicle including a wheel carrier supporting a wheel. The wheel carrier connected via at least one upper camber link, a lower control arm, and a lateral toe link to the vehicle body or subframe. A stabilizer rod connects to the wheel carrier. The wheel suspension including a damper unit and a spring unit wherein the stabilizer rod and the damper unit connect to the wheel carrier at a common connecting point.

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Herzogenrath, Germany

Daniel Mainz