B60G17/0424

RESILIENT EXPANDABLE PRESSURE VESSEL
20170328434 · 2017-11-16 ·

A resilient expandable pressure vessel configured to function like a spring. The resilient expandable pressure vessel includes a body portion, a cavity defined within the body portion, and at least one port in communication with the cavity defined in the body portion. The at least one port is configured to receive a fluid into the cavity and discharge the fluid from the cavity. The resilient expandable pressure vessel has a predetermined expansibility across a range of operating pressures of the fluid in the cavity. The range is at least 200 psi.

Resilient expandable pressure vessel

A resilient expandable pressure vessel configured to function like a spring. The resilient expandable pressure vessel includes a body portion, a cavity defined within the body portion, and at least one port in communication with the cavity defined in the body portion. The at least one port is configured to receive a fluid into the cavity and discharge the fluid from the cavity. The resilient expandable pressure vessel has a predetermined expansibility across a range of operating pressures of the fluid in the cavity. The range is at least 200 psi.

Floatation System for Swathing Rake Attachable to a Baler
20250098589 · 2025-03-27 ·

The present disclosure relates to a flotation system for swathing rakes, attachable to a baler. It includes a support structure configured to be connected to a baler and to a displacement means; at least one arm including a first end connected to a swathing rake and a second end connected, by means of a hinged articulated joint, to the support structure; the swathing rake; the hinged articulated joint and a flotation cylinder joined to the support structure and to the arm configured such that it acts in traction, absorbing a part of the weight of the arm, and therefore of the swathing rake joined thereto. It also includes support and displacement means and a suspension system for said means.

VARIABLE RATE LIQUID SPRING SUSPENSION SYSTEM EXHIBITING LOW VARIANCE IN SUSPENSION FREQUENCY

A suspension system configured to exhibit low variance in vehicle ride frequency over a large range of vehicle loads. The suspension system includes a strut having a cylinder and a piston configured to reciprocate in the cylinder. The suspension system also includes a vessel coupled to the strut, and a valve in an interior chamber of the vessel. The valve divides the interior chamber into a first liquid volume and a second liquid volume. The suspension system also includes a hydraulic accumulator having a volume and a liquid volume. The suspension system further includes a compressible liquid in the cylinder, the first liquid volume in the vessel, and the second liquid volume in the vessel, and a spring element in the volume of the hydraulic accumulator.

Active suspension component degradation determination

This disclosure describes techniques for determining a state of a pressurized chamber of a suspension of a vehicle, wherein the pressurized chamber comprises a hydraulic fluid chamber and a gas chamber separated by a piston. The state is determined by varying a pressure in the hydraulic fluid chamber and determining a knee point in a change of pressure in the hydraulic fluid chamber. The knee point indicates that the separator has been bottomed out. The pressure in the knee point may be used to determine a state of the suspension system.

Method for the loading-dependent adaptation of a system air volume in an air suspension system of a motor vehicle

A method for adapting a system air volume in an air suspension system of a motor vehicle, wherein a setpoint system air volume is determined on the basis of a vehicle body weight of the motor vehicle, wherein the setpoint system air volume is set as discretely or variably increasing in relation to the vehicle body weight.

Variable rate liquid spring suspension system exhibiting low variance in suspension frequency

A suspension system configured to exhibit low variance in vehicle ride frequency over a large range of vehicle loads. The suspension system includes a strut having a cylinder and a piston configured to reciprocate in the cylinder. The suspension system also includes a vessel coupled to the strut, and a valve in an interior chamber of the vessel. The valve divides the interior chamber into a first liquid volume and a second liquid volume. The suspension system also includes a hydraulic accumulator having a volume and a liquid volume. The suspension system further includes a compressible liquid in the cylinder, the first liquid volume in the vessel, and the second liquid volume in the vessel, and a spring element in the volume of the hydraulic accumulator.

VARIABLE RATE LIQUID SPRING SUSPENSION SYSTEM EXHIBITING LOW VARIANCE IN SUSPENSION FREQUENCY

A suspension system configured to exhibit low variance in vehicle ride frequency over a large range of vehicle loads. The suspension system includes a strut having a cylinder and a piston configured to reciprocate in the cylinder. The suspension system also includes a vessel coupled to the strut, and a valve in an interior chamber of the vessel. The valve divides the interior chamber into a first liquid volume and a second liquid volume. The suspension system also includes a hydraulic accumulator having a volume and a liquid volume. The suspension system further includes a compressible liquid in the cylinder, the first liquid volume in the vessel, and the second liquid volume in the vessel, and a spring element in the volume of the hydraulic accumulator.

Variable rate liquid spring suspension system exhibiting low variance in suspension frequency

A suspension system configured to exhibit low variance in vehicle ride frequency over a large range of vehicle loads. The suspension system includes a strut having a cylinder and a piston configured to reciprocate in the cylinder. The suspension system also includes a vessel coupled to the strut, and a valve in an interior chamber of the vessel. The valve divides the interior chamber into a first liquid volume and a second liquid volume. The suspension system also includes a hydraulic accumulator having a volume and a liquid volume. The suspension system further includes a compressible liquid in the cylinder, the first liquid volume in the vessel, and the second liquid volume in the vessel, and a spring element in the volume of the hydraulic accumulator.

Methods and apparatus for suspension set up

A method and apparatus are disclosed that assist a user in performing proper setup of a vehicle suspension. A user may utilize a device equipped with an image sensor to assist the user in proper setup of a vehicle suspension. The device executes an application that prompts the user for input and instructs the user to perform a number of steps for adjusting the suspension components. In one embodiment, the application does not communicate with sensors on the vehicle. In another embodiment, the application may communicate with various sensors located on the vehicle to provide feedback to the device during the setup routine. In one embodiment, the device may analyze a digital image of a suspension component to provide feedback about a physical characteristic of the component.