Abstract: An offset washer for adjusting the camber angle in a vehicle is disclosed. The offset washer includes a body having an upper surface and a lower surface, an aperture extending through the body, and a protrusion having a longitudinal width different than the body thickness. The protrusion is configured to be inserted into a receiving aperture on a flange of a vehicle suspension system. The protrusion is defined by a formed upset defining a step in the material along a portion of the edge of the aperture, which is formed by upsetting the portion of the edge of the aperture when forming the aperture.

Abstract: Discussed herein is an adjustable control arm that includes a first arm and a second arm that may be independently adjustable relative to one another. The first arm and the second arm may have intersecting axes that pass though the kinematic center of joints located at both ends of each arm. The control arms are adjustable allowing for variable positioning of the joint located at the intersection of the axes. The control arms may pivot relative to one another at the intersection of their axes. The connection of the control arms may also house a ball joint minimizing the height of the connection with the ball joint.

Abstract: An offset washer for adjusting the camber angle in a vehicle is disclosed. The offset washer includes a body having an upper surface and a lower surface, an aperture extending through the body, and a protrusion having a longitudinal width different than the body thickness. The protrusion is configured to be inserted into a receiving aperture on a flange of a vehicle suspension system. The protrusion is defined by a formed upset defining a step in the material along a portion of the edge of the aperture, which is formed by upsetting the portion of the edge of the aperture when forming the aperture.

Abstract: Discussed herein is an adjustable control arm that includes a first arm and a second arm that may be independently adjustable relative to one another. The first arm and the second arm may have intersecting axes that pass though the kinematic center of joints located at both ends of each arm. The control arms are adjustable allowing for variable positioning of the joint located at the intersection of the axes. The control arms may pivot relative to one another at the intersection of their axes. The connection of the control arms may also house a ball joint minimizing the height of the connection with the ball joint.

Abstract: In an automatic wash, a control unit operates a boom arm around a vehicle in a bay by moving a bridge along a lengthwise vehicle orientation, moving a trolley on the bridge along a widthwise vehicle orientation, and rotating the boom arm about the trolley. The boom arm is coupled to a mount which is flexibly coupled to the trolley such that boom arm impact displaces the mount and the trolley. The displacement may be two-dimensional and/or angular. In response, the control unit determines whether an impact has occurred by comparing the data to a baseline. If there is an impact, the control unit relocates the boom arm and may continue the wash process. If a sufficient force impact occurs that the control unit cannot correct, the boom arm may disengage from the mount which may trigger a breakaway sensor and cause the control unit to abandon the wash.