Abstract: Embodiments comprise a stackable vehicle which may be supported from, or serve as support to, another like vehicle. The vehicle includes a frame and a body supported from the frame. The body includes a weight bearing roof Wheel assemblies are mounted for rotation on the frame. The body includes recesses from the roof of the body to accommodate location of wheel assemblies of a like vehicle supported on the roof Support and mounting points are located on the roof and on the frame respectively to fix location of a vehicle to be carried on top of a supporting vehicle.

Abstract: Embodiments disclosed herein provide a vehicle roof having a roof panel formed of molded fiberglass. The panel has a first surface and a second surface. An insert is molded into the roof panel. The insert has an interior surface generally concentrically disposed about an axis that is generally perpendicular to the first surface and the second surface of the roof panel. The insert is at least substantially embedded in the roof panel.

Abstract: A steering shaft coupling device and method providing a gearless, offset steering arrangement. The device includes a housing having an first section and a second section forming a compartment having two adjacent openings therein, a first and a second CV joint, each CV joint seated within each one of the openings of the housing compartment, and a linkage joining the first and second joints. The CV joints may also function as slip joints.

Abstract: Embodiments comprise a stackable vehicle which may be supported from, or serve as support to, another like vehicle. The vehicle includes a frame and a body supported from the frame. The body includes a weight bearing roof. Wheel assemblies are mounted for rotation on the frame. The body includes recesses from the roof of the body to accommodate location of wheel assemblies of a like vehicle supported on the roof. Support and mounting points are located on the roof and on the frame respectively to fix location of a vehicle to be carried on top of a supporting vehicle.

Abstract: Embodiments comprise a stackable vehicle which may be supported from, or serve as support to, another like vehicle. The vehicle includes a frame and a body supported from the frame. The body includes a weight bearing roof Wheel assemblies are mounted for rotation on the frame. The body includes recesses from the roof of the body to accommodate location of wheel assemblies of a like vehicle supported on the roof Support and mounting points are located on the roof and on the frame respectively to fix location of a vehicle to be carried on top of a supporting vehicle.

Abstract: Embodiments disclosed herein relate to a visor support and a method of supporting a visor. In one embodiment, the support comprises a body and a flange with the visor is attached to the body such that the visor moves with respect to the body. A fastener attaches the body to the flange such that the body moves with respect to the flange. A first detent is disposed on the flange. A first ball is disposed on the body. The first ball is engageable with the first detent to control vertical movement of the visor. A second detent is disposed on the visor. A second ball is disposed on the body. The second ball is engageable with the second detent to control horizontal movement of the visor.

Abstract: Embodiments disclosed herein relate to a visor support and a method of supporting a visor. In one embodiment, the support comprises a body and a flange with the visor is attached to the body such that the visor moves with respect to the body. A fastener attaches the body to the flange such that the body moves with respect to the flange. A first detent is disposed on the flange. A first ball is disposed on the body. The first ball is engageable with the first detent to control vertical movement of the visor. A second detent is disposed on the visor. A second ball is disposed on the body. The second ball is engageable with the second detent to control horizontal movement of the visor.

Abstract: Embodiments disclosed herein provide a vehicle roof having a roof panel formed of molded fiberglass. The panel has a first surface and a second surface. An insert is molded into the roof panel. The insert has an interior surface generally concentrically disposed about an axis that is generally perpendicular to the first surface and the second surface of the roof panel. The insert is at least substantially embedded in the roof panel.

Abstract: Embodiments described herein provide a system for increasing a field of view of a substantially stationary user of a vehicle having a ground facing surface. In one embodiment, the system comprises one side of the field of view defined by a substantially level gaze of the substantially stationary user. A windshield is disposed at a nose of the vehicle. A visor is disposed on the vehicle. The visor is positioned such that the windshield is between the ground facing surface of the vehicle and the visor. The visor has a ground facing surface. A vehicle mirror is disposed on the ground facing surface of the visor. A line of sight extends from the vehicle mirror to ground. A second side of the field of view is defined by the line of sight.

Abstract: Embodiments comprise a stackable vehicle which may be supported from, or serve as support to, another like vehicle. The vehicle includes a frame and a body supported from the frame. The body includes a weight bearing roof Wheel assemblies are mounted for rotation on the frame. The body includes recesses from the roof of the body to accommodate location of wheel assemblies of a like vehicle supported on the roof Support and mounting points are located on the roof and on the frame respectively to fix location of a vehicle to be carried on top of a supporting vehicle.

Abstract: A motor vehicle frame having parallel frame rails and at least one cross member constructed from a tube. The tube is sealed at its opposite ends by first and second mounting plates to provide a sealed, closed space for the storage of fluids. The mounting plates directly abut the frame rails for attachment of the cross member to the vehicle frame.

Abstract: A method of mounting a battery box (10) on a frame rail (12). Fasteners and elements (36, 38; or 54, 56) provide spaced apart, axially tapered outer surfaces (46; 62) proximate a vertical side of the rail with the tapers narrowing toward the side of the rail. The box has tabs (28) having downwardly open throats (30). The box is hung on the rail by positioning the box so as to place each tab over a respective element (38 or 56) on the fastener (36 or 54) with the tab throat aligned with the element, and then lowering the box to cause the elements to enter the tab throats and the throats to come to rest on the elements so that at least some of the weight of the box is borne by the rail through the throats resting on the elements. With the throats resting on the elements, the tapered outer surfaces present axial interference to the tabs beyond the tabs relative to the rail. After the box has been hung, the box is fastened to the rail by additional fasteners.

Abstract: A method of mounting a battery box (10) on a frame rail (12). Fasteners and elements (36, 38; or 54, 56) provide spaced apart, axially tapered outer surfaces (46; 62) proximate a vertical side of the rail with the tapers narrowing toward the side of the rail. The box has tabs (28) having downwardly open throats (30). The box is hung on the rail by positioning the box so as to place each tab over a respective element (38 or 56) on the fastener (36 or 54) with the tab throat aligned with the element, and then lowering the box to cause the elements to enter the tab throats and the throats to come to rest on the elements so that at least some of the weight of the box is borne by the rail through the throats resting on the elements. With the throats resting on the elements, the tapered outer surfaces present axial interference to the tabs beyond the tabs relative to the rail. After the box has been hung, the box is fastened to the rail by additional fasteners.