Deere & Company

Zf Friedrichshafen Ag

Byron N Manternach

Donald Eugene Young

Wen Tsung Lin

William K Rule

Jade E Bender

Scott A Tebbe

Ryan Pecinovsky

Anthony T DeSalvo

Todd W Rea

Aaron Booms

Jens Eismann

Brandon David Lee

Charles Nicholas Warren

Eike Helm

Joshua J Kappelman

Jacob J Foxen

Jonathan T Roth

Andrew F Rames

Sachidanand Sasidharan

Sungkwon Choi

Kiran Patel

Daniel J Deboer

Kiran Patil

Stefan Grossmann

A suspension system for a work vehicle includes a shock absorber including a fluid, a coil positioned at least partially in the fluid, a sensor configured to detect a work status of the work vehicle, and a controller. The controller is configured to determine the work status of parked or operational based on the sensor, determine an electrical resistance of the coil in a shock absorber based on the work status, predict a temperature of a fluid in the shock absorber based on the electrical resistance of the coil, provide an electric current in the coil based on the predicted temperature of the fluid, determine the electrical resistance of the coil while the electric current is on, and terminate the electric current in the coil based on the work status and the predicted temperature.

Suspension system for a work vehicle

A suspension system for an operator station of a work vehicle having a chassis includes a subframe structure, a plurality of mounting pads, a plurality of shock absorbers, a rear lateral rod, a front stabilizer, and a pitch control stabilizer. The plurality of mounting pads is positioned on a top surface of the subframe structure. The plurality of shock absorbers connects between the chassis and the subframe structure near each of the mounting pads. The rear lateral rod connects to the rear side of the subframe structure and to the chassis. The front stabilizer connects to the front side of the subframe structure and to the chassis. The pitch control stabilizer connects to the right side of the subframe structure and to the chassis.

Suspension system for an operator station of a work vehicle

A suspension system for an operator station of a vehicle having a chassis includes a subframe structure positioned between the operator station and the chassis. The subframe structure includes a plurality of mounting pads configured to support the operator station. A plurality of suspension assemblies are connected between the chassis and the subframe structure near each of the mounting pads. A first lateral rod is connected between the subframe structure near one of the mounting pads and the chassis. A first longitudinal rod is connected between the subframe structure near one of the mounting pads and the chassis. A stabilizer bar is connected between the subframe structure at two locations and the chassis. A roll control bar is connected between the subframe structure at two locations and the chassis.

Operator station suspension system

A work machine, with a frame member, a ground engaging mechanism coupled to the frame member and configured to at least partially contact an underlying surface, a sensor coupled to the ground engaging mechanism, the sensor positioned to identify a displacement of the ground engaging mechanism relative to the frame, a controller in communication with the sensor, and a location system in communication with the controller. Wherein, the controller marks a location that corresponds with the position of the ground engaging mechanism, the location being identified by the location system when the sensor identifies the displacement of the ground engaging mechanism.

Object detection and documentation system for tillage equipment

An operator station suspension system including a subframe structure with connection locations, isolators, and suspension components to couple the subframe structure to a chassis and enable movement of the subframe structure relative to the chassis. The subframe structure connects to an operator station at the connection locations with isolators between the subframe structure and operator station at each connection location to reduce noise and vibration. The isolators can be made of rubber, polymer or other materials. Each connection location can have a connection post, and the isolators can be ring-shaped to fit over the connection posts. The suspension components can include shock dampers that enable vertical movement, control linkages that enable pitch motion, and/or stabilizer linkages that enable roll motion of the subframe structure relative to the chassis. The subframe structure can include a rigid body with forward and rearward arms rigidly connected to the rigid body.

Operator station suspension isolation system

An operator station suspension system including isolators, a butterfly crossbar and station connection locations located on the butterfly crossbar. The butterfly crossbar includes a central crossbar that extends laterally with forward extending arms rigidly connected at the left and right ends, and rearward extending arms rigidly connected at the left and right ends of the central crossbar. The butterfly crossbar couples to the operator station at the station connection locations with one of the isolators located between the butterfly crossbar and the operator station at each of the station connection locations to reduce noise and vibration. Each connection location can have a connection post, and the isolators can be ring-shaped to fit over the connection posts. The suspension system can also include shock dampers for vertical movement, control linkages for pitch motion, and/or stabilizer linkages for roll motion of the subframe structure relative to the chassis.

A cabin suspension arrangement for a utility vehicle, having a plurality of trailing arms that extend in a longitudinal direction, by which a driver's cabin is mounted and can pivoted relative to a vehicle frame. Two of the trailing arms are arranged spaced apart from one another in a transverse direction that extends perpendicularly to the longitudinal direction, are connected to one another by a torsion bar spring that extends in the transverse direction, and are arranged at the same height in a vertical direction perpendicular to the longitudinal direction and to the transverse direction, thereby forming a first trailing arm pair. Two other trailing arms are arranged spaced apart from one another in the transverse direction, are arranged at the same height in the vertical direction, and thereby form a second trailing arm pair, which is spaced apart, in the vertical direction, from the first trailing arm pair.

Cab support arrangement for a utility vehicle

A suspension system for controlling multiple degrees of freedom of a cab of a vehicle has mounting pads that support the cab with a spring assembly connected between the chassis and each mounting pad, allowing the cab to move with multiple degrees of freedom. A lateral rod connects with one of the mounting pads, with the chassis, and restricts sideways motion of the cab. A longitudinal rod connects with one of the mounting pads, with the chassis, and restricts forward motion of the cab. A stabilizer bar connects with one of the front mounting pads, one of the rear mounting pads, the chassis structure, and controls forward pitch rate of the cab. A roll control bar connects with the rear mounting pads and the chassis structure, and controls lateral roll rate of the cab.

Multiple degree of freedom cab suspension system

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Dunkerton, IA, United States of America

Byron N Manternach