A removably attachable fender flare system has an inner flare and an upper flare and a lower flare, which are removably attachable to the inner flare. The upper and lower flare may have traction protrusions to provide traction to free a stuck off-road vehicle. The inner flare may be in direct contact with and coupled to the off-road vehicle, providing a location to secure the upper and lower flares. The upper flare and lower flare may couple to a groove, which runs the length of the inner flare, from front to back. Further, the lower flare may couple to the upper flare, securing the fender flares.

The invention relates to a vehicle wheel comprising a wheel rim (12) that has a hub portion (38), a rim base (36) for receiving a tire, a plurality of support portions (40) interposed between the hub portion (38) and the rim base (36), at least one interspace (42) between the support portions (40), and at least one cover element (44) associated with the interspace (42), characterized in that the cover element (44) can be transferred from a first position to a second position by pneumatic actuation.

A traction enhancing device for a vehicle includes a plurality of spikes that is coupled to and extends from an outer face of a panel that is bendable and configured to conform to a circumference of a tire. A plurality of first straps and a plurality of second straps are coupled to a first edge and a second edge of the panel, respectively. Each second strap and an associated first strap are configured to loopedly position around the tire and a rim of a vehicle. Each of a plurality of first couplers and each of a plurality of second couplers are coupled to a respective first strap and a respective second strap, respectively, distal from the panel. Each second coupler is positioned to couple to an associated first coupler to couple the panel to the tire, positioning the spikes to insert into a substrate to increase traction of the tire.

A wheel apparatus for a self-propelled irrigation system has a center portion, a rim assembly, and a support structure disposed between the center portion and the rim assembly. The rim assembly has a plurality of rigid members spaced apart from each other with longitudinal axes that are parallel with each other and equidistant from the axis of rotation. The rigid members are cylindrical with unsupported ends, and a mounting portion between the ends is connected to an outer periphery of the support structure. The rigid members are held in a fixed position relative to the center portion by the support structure. The rigid members are arranged to contact the ground surface to support the irrigation system with spaces between the rigid members allowing mud and debris to pass freely between the rigid members during operation to enhance traction while minimizing mud from being forced out of a wheel track.

Provided is an apparatus designed to engage tire chains on motorized vehicles when hazardous road conditions are present, including snow or ice. Moreover, the chains are designed to be deployed manually from inoperative to operative positioning by raising and lowering the apparatus handle. A rotating quick deploy chain wheel at the bottom of the apparatus throws a plurality of chains between the tire and road surface generating vehicle traction. This utility patent for tire chains will provide a cost effective, simple method for putting on and taking off snow tire chains. Existing automatic chain systems characteristically require electronics, motors or a pneumatic system. The embodiment of this apparatus is the simplicity of locking a handle and the chains are engaged. Releasing the handle and the chains are disengaged.

A vehicle recovery ladder includes a body and traction members fastened to the body. Advantageously, in one embodiment any damaged traction members may be readily released and replaced to maintain the performance of the ladder. The traction members may be fastened to the body during forming of the body, Advantageously, the traction members are releaseably fastened to the body.

A wheel includes a body (10) having a cylindrical outer circumference; a first ring member (21) provided at one side edge of the body (10) in the form of a protruding ring; a second ring member (22) provided at the other side edge of the body (10) in the form of a protruding ring; a rotation ring (30) located between the first ring member (21) and the second ring member (22) and located out of the body (10) and rotatably coupled thereto; a plurality of pivoting plates (40) coupled to the rotation ring (30) to be pivotal outward and configured to protrude out of the rotation ring (30); a connection member (50) located between the plurality of pivoting plates (40) to connect the first ring member (21) and the second ring member (22) and serve as a stopper for limiting a pivoting range of the pivoting plate (40); a first groove (31) formed at the rotation ring (30) along a rotation direction of the rotation ring (30); a second groove (11) formed at the body (10) at a position corresponding to the first groove (31); a stopper bar (60) configured to be pivotal based on a center portion (C) of the body (10) and provided through the first groove (31) and the second groove (11); and a shock absorber (70) coupled to the body (10) to absorb shock when the stopper bar (60) pivots.

A dual plunging constant velocity (CV) drive shaft is provided for communicating rotational forces from a transaxle to a drive wheel of a vehicle. The dual plunging CV drive shaft comprises a drive shaft that transfers torque from the transaxle to the drive wheel. An inboard plunging CV joint is coupled between the transaxle and the drive shaft, and an outboard plunging CV joint is coupled between the drive shaft and the drive wheel. The inboard and outboard plunging CV joints each comprises an elongate housing that receives a CV joint coupled with the drive shaft. The inboard and outboard plunging CV joints communicate rotational forces from the transaxle to the drive wheel during vertical pivoting of a trailing arm coupled with the outboard plunging CV joint. The elongate housings allow the drive shaft to float longitudinally, as needed, during extreme pivoting motion of the suspension.

A wireguard subassembly includes a first circumferential segment defining a proximate end including a ledge at least partially defining a notch; a second circumferential segment defining a distal end disposed adjacent the proximate end of the first circumferential segment; and a gusset member including a tab at least partially disposed in the notch on top of the ledge.

A wireguard subassembly includes a first circumferential segment defining a circumferential direction, a first near end, a first far end, and a first cleat portion disposed circumferentially between the first near end and the first far end; and a second circumferential segment defining a second near end, a second far end, and a second cleat portion disposed circumferentially between the second near end and the second far end. The second cleat portion is circumferentially aligned with the first cleat portion.