Abstract: Generally, a suspension system for a wheel of a vehicle is disclosed. The system may include at least one pair of arms each including a first arm and a second arm. Each of the first arm and the second arm of the at least one pair of arms may have a first end adapted to be rotatably connected to a wheel interface and a second end adapted to be rotatably connected to a reference frame of the vehicle, while the first arm and the second arm may be set across each other and define a mobile steering axis at a virtual intersection therebetween such that the mobile steering axis moves with respect to the reference frame when the wheel interface changes its steering angle relative to the reference frame.

Abstract: A trailing arm mounting structure for a space frame vehicle includes: a trailing arm mounting portion configured to mount a trailing arm; a side sill including a rear portion on which the trailing arm mounting portion is mounted; and a rear pillar connected to an upper rear portion of the side sill.

Abstract: A recreational off-highway vehicle includes a vehicle frame, least one front wheel, a pair of rear wheels, a pair of rear suspensions, a rear differential and a motor. The rear suspensions connect the rear wheels to the vehicle frame. The rear differential connects to the rear wheels. The motor is connected to the rear differential to drive the rear wheels. Each rear suspensions includes a trailing arm, a floating rear knuckle, a shock absorber and a plurality of control links. The trailing arm has a front end pivotally connected to the vehicle frame. The floating rear knuckle is pivotally connected to a rear end of the trailing arm. The shock absorber is coupled between the vehicle frame and the trailing arm. The control links have first ends movably supporting the floating rear knuckle and second ends pivotally connected to the vehicle frame forward of the rear differential.

Abstract: A suspension system includes: a trailing arm and a lower arm which are turnably connected to a chassis and are joined in such a way as to be displaceable relative to each other through a hinge mechanism; and a stabilizer. The suspension system includes a stabilizer link which connects the stabilizer to the trailing arm. A fitting point of the stabilizer link to the trailing arm is located behind a center axis of the hinge mechanism in a vehicle front-back direction, and a fastening point of the stabilizer and the stabilizer link is located above the fitting point in a vehicle up-down direction and inside the fitting point in a vehicle width direction.

Abstract: A vehicle suspension comprises an assembly of a hub carrier and a support arm, the support arm being attached to the hub carrier at two points spaced from each other in the direction of travel and extending inwardly therefrom to a support arm attachment point for fixing to a chassis, and a trailing link extending from the assembly in a direction transverse to that of the support arm, toward a trailing link attachment point for fixing to the chassis. The trailing link preferably extends from the assembly in a forward direction, and is preferably connected directly to the hub carrier. A strut can extend upwardly toward an attachment point for fixing to a chassis, to provide a spring and damper. The support arm can comprise a pair of arms extending divergently from the attachment point to each of the two points. The hub carrier can include a pivot pin extending in a fore/aft alignment, passing through two pivot points on the support arm thereby to define the two points.

Abstract: A frame structure is provided for a motor vehicle having at least two longitudinal girders, each having a first longitudinal section and a second longitudinal section, which are at an angle to one another, so that in the installed state of the frame structure in a motor vehicle, the first longitudinal section lies essentially horizontally below a floor plate of the vehicle body and the second longitudinal section extends essentially upward and, viewed in the forward travel direction, the first longitudinal section is arranged behind the second longitudinal section. It is provided that beginning in the area of the transition from the second longitudinal section to the first longitudinal section or an area adjacent thereto, the longitudinal girders extend at least partially away from one another in the direction of the first longitudinal section. Furthermore, the invention relates to a rear frame structure and a vehicle body.

Abstract: A universal interconnection system includes a bushing assembly having one or more bushing member disposed in an operative engagement between the components, wherein each bushing member is individually interconnected between the oppositely disposed components via corresponding bushing fasteners. Each of the oppositely disposed components comprises at least one interconnection aperture through which a portion of a bushing member is disposed prior to being secured therein by a corresponding bushing fastener. Each bushing fastener is removable from the bushing member thereby providing secure yet releasable interconnection of the oppositely disposed components.

Abstract: A drive shaft damper assembly installed onto a drive shaft bearing secured to a drive shaft mounted to a vehicle. The drive shaft bearing assembly includes a bearing collar assembly securely attached to the drive shaft bearing. The drive shaft damper assembly also includes an inner damper assembly, interconnected to the bearing collar assembly, which defines an inner bushing interface, and an outer damper assembly defining an outer bushing interface. A bushing assembly is disposed in an operative engagement between the inner and outer damper assemblies, wherein each of a plurality of bushing members are individually interconnected between the inner bushing interface and the outer bushing interface via corresponding bushing fasteners, the bushing members being removable and replaceable to permit tuning of the operation of the drive shaft. A mounting mechanism is structured to securely attach the outer damper assembly to a portion of the vehicle.

Abstract: A structure of a vehicle subframe mounted to a vehicle, in which a wheel hub may be connected to a vehicle body through a lower arm and an upper arm disposed below and above one another, and in which the lower arm may be coupled in a traverse direction of the vehicle may include a plate-shaped body mounted to a lower portion of the vehicle body, and having the lower arm mounted thereon in the traverse direction of the vehicle, and a mounting bracket protruding from the body upwards wherein the upper arm may be pivotally coupled to an upper portion of the mounting bracket.

Abstract: A drive shaft damper assembly is structured to be installed onto a drive shaft bearing while it remains secured to a drive shaft mounted to a vehicle. The drive shaft bearing assembly includes a bearing collar assembly having a collar and a securing mechanism structured to securely attach the collar to the drive shaft bearing. The drive shaft damper assembly also includes an inner damper assembly, interconnected to the bearing collar assembly, which defines an inner bushing interface, and an outer damper assembly defining an outer bushing interface. A bushing assembly is disposed in an operative engagement between the inner and outer damper assemblies, wherein each of a plurality of bushing members are individually interconnected between the inner bushing interface and the outer bushing interface. A mounting mechanism is structured to securely attach the outer damper assembly to a portion of the vehicle.

Abstract: A chassis frame (10) has a cross member (22) that bridges right and left side rails (18, 20). Right and left wheel units (14, 16) comprising respective right and left steered road wheels (24, 26) are suspended from the frame by respective multi-link suspensions (33). A steering system (28) steers the wheels. An electric motor (34) and gear box (36) mounted on the cross member is coupled to the right and left wheels by respective drive shafts (38, 40). The weight of a brake system (42, 44) for the wheels is supported by the frame.

Abstract: An axle assembly is provided that includes a differential housing, a first axle tube and a second axle tube. The first axle tube and the second axle tube are releasably secured to the differential housing and to one another.

Abstract: A steerable rear suspension for a tractor includes a chassis comprising a front end, a rear end, a left side and a right side; an engine mounted on the chassis; a pair of steerable front wheels coupled to the front end, left and right side of the chassis; a left rear suspension including a left rear suspension arm pivotally coupled to the chassis at a leading end of the suspension arm, and a first steerable planetary gear system mounted on a trailing end of the suspension arm; a right rear suspension including a right rear suspension arm pivotally coupled to the chassis at a leading end of the suspension arm, and a second steerable planetary gear system mounted on a trailing end at the right suspension arm; and left and right rear wheels driven by the first and second planetary gear systems.

Abstract: A differential (2) for a vehicle is proposed for the apportionment of a drive torque conducted via a drive shaft on a crown gear (7). The drive torque is engendered by a motor (1) onto two output shafts (3, 4) and differential is to serve for the compensation of a difference in speed of rotation between the two output shafts (3, 4). The crown gear (7) is located in an area between the motor (1) and a drive wheel (6) of a vehicle (29) while a semi-independent suspension assembly (10) is to be found between the output shafts (3, 4) in the area between the motor (1) and the other drive wheel (5) of the vehicle, whereby the crown gear (7) and the semi-independent suspension assembly (10) are bound together via a shaft (8).

Abstract: A suspended drive axle and agricultural tractor having same including a central housing having inboard final drives and left and right axle housing suspended therefrom by upper and lower control arms with axle shafts extending outwardly therefrom to which wheel and tire assemblies are mounted. A constant velocity universal joint is provided between the inboard final drives and the axle shafts. The universal joint having a pair of journal members and a coupling yoke that radially surround the drive and driven yokes of the joint whereby the axial length of the universal joint is minimized to enable the wheels to be located on the axle shafts at 60 inch tread spacing. This allows the drive axle to be used on a row crop tractor without altering the structure of the vehicle from a conventional row crop tractor whereby the characteristics of a row crop tractor are maintained.

Abstract: A suspended drive axle and agricultural tractor having same including a central housing having inboard final drives and left and right axle housing suspended therefrom by upper and lower control arms with axle shafts extending outwardly therefrom to which wheel and tire assemblies are mounted. A constant velocity universal joint is provided between the inboard final drives and the axle shafts. The universal joint having a pair of journal members and a coupling yoke that radially surround the drive and driven yokes of the joint whereby the axial length of the universal joint is minimized to enable the wheels to be located on the axle shafts at 60 inch tread spacing. This allows the drive axle to be used on a row crop tractor without altering the structure of the vehicle from a conventional row crop tractor whereby the characteristics of a row crop tractor are maintained.

Abstract: A suspended drive axle and agricultural tractor having same including a central housing having inboard final drives and left and right axle housing suspended therefrom by upper and lower control arms with axle shafts extending outwardly therefrom to which wheel and tire assemblies are mounted. A constant velocity universal joint is provided between the inboard final drives and the axle shafts. The universal joint having a pair of journal members and a coupling yoke that radially surround the drive and driven yokes of the joint whereby the axial length of the universal joint is minimized to enable the wheels to be located on the axle shafts at 60 inch tread spacing. This allows the drive axle to be used on a row crop tractor without altering the structure of the vehicle from a conventional row crop tractor whereby the characteristics of a row crop tractor are maintained.

Abstract: A vehicular frame assembly 10 having a pair of members 12, 14 which are generally parallel to the longitudinal axis of symmetry 16 of the vehicle which is constructed by use of the frame assembly 10. Each member 12, 14 is connected by use of members 11, 18, 20, 21, and 13 and has a pair of portions 22, 24 which each have a relatively tall sectional height which include an aperture 28. A unique one of the half shafts 32, 34, 36, and 38 are received within each of these apertures 28, thereby allowing the portions 22, 24 to have a relatively tall sectional height and thereby allowing the frame assembly 10 to have a lowest resonant frequency mode in excess of about fifty hertz.

Abstract: A suspension for a heavy duty vehicle is provided that includes a frame. A lower linkage is supported by the frame at a first pivotal connection. A drive axle assembly is supported by a lower linkage at a second pivotal connection. The drive axle assembly includes an input shaft defining a pinion angle. An upper linkage interconnects the drive axle assembly and the frame at third and fourth pivotal connections, respectively. The upper linkage includes an adjustment member, such as a turnbuckle, for modifying the length of the upper linkage to obtain a predetermined pinion angle. In this manner, the pinion angle may be adjusted upon assembly of the suspension system. Furthermore, by permitting the drive axle assembly to pivotally move relative to the linkages, the pinion angle may be maintained during suspension movement.

Abstract: A suspended drive axle and agricultural tractor having same including a central housing having inboard final drives and left and right axle housing suspended therefrom by upper and lower control arms with axle shafts extending outwardly therefrom to which wheel and tire assemblies are mounted. A constant velocity universal joint is provided between the inboard final drives and the axle shafts. The universal joint having a pair of journal members and a coupling yoke that radially surround the drive and driven yokes of the joint whereby the axial length of the universal joint is minimized to enable the wheels to be located on the axle shafts at 60 inch tread spacing. This allows the drive axle to be used on a row crop tractor without altering the structure of the vehicle from a conventional row crop tractor whereby the characteristics of a row crop tractor are maintained.

Abstract: An axle shaft spacer member for use with a suspension lift kit. The spacer member enables the wheel spindle of a vehicle to be moved laterally a desired distance, which in turn enables the upper control arms associated with the wheel spindle to be lowered when such would not otherwise be possible because of interference with the frame portion of the vehicle. The spacer is a disc-like member having a thickness equal to the desired lateral offset distance needed to enable the upper control arm to be lowered and re-mounted via a drop bracket, to the frame. The spacer member enables the original suspension geometry to be maintained, thus maintaining the ride and steering characteristics of the original suspension system while enabling vehicle ride height to be increased.

Abstract: A modular independent coil spring suspension for steerable/non-steerable wheel assemblies and driven/non-driven axles having a single coil spring with a low spring rate secured (a) to the lower of two vertically spaced control arms which connect the chassis to wheel assembly on one end, and (b) to the chassis at an upper location approximately level with a tire of the wheel assembly at the other end which provides maximum wheel travel, decreased rearward thrust, and tire/ground mobility.

Abstract: A rear structure of a motor vehicle increases the packaging flexibility within the body structure area above a differential unit (36) such that a third row seat (110) may readily be incorporated therein. The rear structure includes a floor pan (14) and a pair of spaced apart rear side frame members (22,24) having middle portions (70, 72) with first and second apertures (90,92) therein. The differential unit includes first and second axle members (34,36) which extend through the first and second apertures.

Abstract: An independent suspension and rear halfshaft assembly for a vehicle having at least one wheel, a frame and at least one source of torque transmission, comprising at least one rigid arm hingedly connected to the frame and connected to the wheel, a Cardan type universal joint operatively connected to the source of torque transmission and having a pivot point approximately collinear with the pivot axis of the rigid arm, a rigid axle shaft operatively connected to the Cardan type universal joint and a crown spline joint operatively connecting the rigid axle shaft and the wheel.

Abstract: A partially sprung differential gear system for a driving axle independent or deDion suspension system which embodies the mounting of the differential gear system to the suspension system such that the differential gear unit thereof travels in a ratio proportional to the wheel travel. The arrangement provides increased ground clearance and wheel travel for the driving axle independent suspension system.