An axle suspension system and a method of manufacture. The axle suspension system may have an axle, an axle wrap, and a weld seam. The axle wrap may have first and second wrap portions that mechanically interlock with each other and that have overlapping ends that may receive a weld seam.

Disclosed herein is an axle cartridge member for receiving a pair of torsion stub axles. The axle cartridge member includes a pair of laterally opposed bases, with each base defining a cavity therein for receiving an elongated stub housing of the torsion stub axles. The axle cartridge member also includes a pair of axle mounts that each includes a lateral opening extending into the cavity defined in the respective base, and an arch including a crossbar extending at a height above the bases wherein the arch further includes a portion that extends upward from each of the bases at an angle and meets the crossbar that extends generally horizontally between the portions of the arch.

A heavy goods vehicle (10) having a vehicle frame (12) and at least one driving axis (A), which has on either longitudinal side (10a) of the vehicle (10) a bogie (22) comprising a wheel assembly (14), each wheel assembly (14) comprising at least two wheels arranged symmetrically in relation to a central axis (S), and a wheel suspension (18) by means of which said wheel assembly is fastened to a rotary plate (28) of the bogie (22), this rotary plate (28) being mounted on a rotary bearing (24) of the bogie (22) which is engaged with the vehicle frame (12) so as to be rotatable about a steering swivel axis (X). According to the invention, the rotary bearing (24) of the bogie (22) can be adjusted in the width direction (B) of the vehicle relative to the vehicle frame (12) and can be detachably connected to the vehicle frame (12) in an operationally stable manner.

A spring carrier of a motor vehicle axle, particularly of a portal axle, with a longitudinal portion (1) and a flange portion (2) which adjoins the one end of the longitudinal portion (1) and which has a flange (8). The longitudinal portion (1) includes at least one fastening point for fastening to a shock absorber and/or to a suspension. At least the longitudinal portion (1) of the spring carrier arm comprises a lower shell (4) and an upper shell (3) of metallic material or of a plastic with or without fiber reinforcement, the shell edges (6, 7) thereof extending along the neutral bending axis (5) of the spring carrier arm, and the lower shell (4) and upper shell (3) are connected to one another along the neutral bending axis (5) of the spring carrier arm by bonding engagement.

A suspension for a two-wheeled vehicle includes first and second fork legs. Each fork leg includes a dropout. Each dropout has an opening therethrough. At least a portion of one of the openings is threaded. Each of the dropouts includes a split-damp pinch bearing defining the opening and operable between an open position and a locked position, and a hand operable actuator pivoted to the bearing for operation thereof. The suspension further includes a one-piece axle. The axle is disposed through the openings. The axle has a threaded first end engaged with the threaded portion. The axle has an ergonomic grip formed at a second end. The bearing tightly engages an outer surface of the axle in the locked position, thereby rotationally coupling the axle to the dropout.

Provided discloses an integrated axle assembly and structural assembly. The integrated axle assembly comprises an axle tube assembly extending in a first direction; a front support arm extending circumferentially from the axle tube assembly in a second direction perpendicular to the first direction for attachment to the frame; a rear support arm extending circumferentially from the axle tube assembly in a third direction away from the second direction for mounting a resilient assembly; and a brake base plate extending in a peripheral direction from the circumference of the axle tube assembly; the axle tube assembly, front bracket arm, rear bracket arm and brake base plate are molded in one piece, which improves the assembly efficiency.

A wheel float that articulates in multiple directions for efficiently and safely moving an object across a surface having a non-planar obstruction. The wheel float has a pair of walking beam assemblies, a crosstube assembly having a crosstube interconnecting the walking beam assemblies, a pedestal supported by the crosstube and a center pivot assembly that allows the crosstube assembly to pivot relative to the pedestal. The pedestal has a support surface that supports the object above the walking beam assemblies. Each walking beam assembly has a base plate, wheeled casters, a pair of spaced apart hangers and a bushing assembly associated with an articulation opening in each of the hangers. Pivot members at the ends of the crosstube assembly engage the hanger bushings to allow the respective walking beam assembly to pivot relative to the crosstube. Thrust blocks or locating plates position the walking beam assemblies on the crosstube assembly.

A suspension for a two-wheeled vehicle includes first and second fork legs. Each fork leg includes a dropout. Each dropout has an opening therethrough. At least a portion of one of the openings is threaded. Each of the dropouts includes a split-damp pinch bearing defining the opening and operable between an open position and a locked position, and a hand operable actuator pivoted to the bearing for operation thereof. The suspension further includes a one-piece axle. The axle is disposed through the openings. The axle has a threaded first end engaged with the threaded portion. The axle has an ergonomic grip formed at a second end. The bearing tightly engages an outer surface of the axle in the locked position, thereby rotationally coupling the axle to the dropout.

A vehicle suspension assembly includes providing an axle assembly having a first end including a first mounting structure and a second end, providing a first bearing block and a second bearing block, forming a first aperture in the first bearing block and a second aperture in the second bearing block, attaching the first and second bearing blocks to the first mounting structure subsequent to forming the first and second apertures; and providing a first spindle assembly coupled to the first mounting structure by a first spherical bearing located within the first aperture and a second spherical bearing located within the second aperture, wherein a first kingpin assembly extends through the first and second spherical bearings, thereby coupling the first spindle with the first mounting structure.

A wheel float that articulates in multiple directions for efficiently and safely moving an object across a surface having a non-planar obstruction. The wheel float has a pair of walking beam assemblies, a crosstube assembly having a crosstube interconnecting the walking beam assemblies, a pedestal supported by the crosstube and a center pivot assembly that allows the crosstube assembly to pivot relative to the pedestal. The pedestal has a support surface that supports the object above the walking beam assemblies. Each walking beam assembly has a base plate, wheeled casters, a pair of spaced apart hangers and a bushing assembly associated with an articulation opening in each of the hangers. Pivot members at the ends of the crosstube assembly engage the hanger bushings to allow the respective walking beam assembly to pivot relative to the crosstube. Thrust blocks or locating plates position the walking beam assemblies on the crosstube assembly.