An automotive vehicle delivery apparatus includes a traveling showroom structure with sidewalls and a rearwall that enclose an interior vehicle transport space and a substantial majority of which are made up of see-through panes. On board loading rails enable an automotive vehicle to be driven into the interior transport space and doors along the sidewalls enable the automotive vehicle driver door to be opened when the automotive vehicle is within the interior transport space.

A vehicle is disclosed having a composite cargo body assembled in a manner that may improve thermal efficiency, fuel efficiency, and costs of manufacturing.

A cargo body includes a floor configured to support a cargo load and a roof positioned above the floor. The roof includes a roof panel having a composite construction including a first skin, a second skin, and a core positioned between the first and second skins. The cargo body includes first and second lateral sidewalls, each having an upper rail extending along an upper edge thereof. An edge portion of the roof panel is joined to one of the first and second upper rails.

A cargo body includes a floor configured to support a cargo load and a roof positioned above the floor. The roof includes a roof panel having a composite construction including a first skin, a second skin, and a core positioned between the first and second skins. The cargo body includes first and second lateral sidewalls, each having an upper rail extending along an upper edge thereof. An edge portion of the roof panel is joined to one of the first and second upper rails.

An exemplary multi-dimensional load structure may include a base panel having a tiered structure with an upper layer, a lower layer, and at least one interior layer therebetween. The load structure may also have a glass layer applied to at least surfaces of each of the upper layer, the lower layer, and the at least one interior layer not in contact with an adjacent layer. The load structure may further have a coating applied to the exterior of the glass layer. The at least one interior layer may be configured to withstand a greater compressive force than the upper layer and the lower layer and/or the upper layer and the lower layer may be lighter than the at least one interior layer.

A cargo body includes a floor configured to support a cargo load and a roof positioned above the floor. The roof includes a roof panel having a composite construction including a first skin, a second skin, and a core positioned between the first and second skins. The cargo body includes first and second lateral sidewalls, each having an upper rail extending along an upper edge thereof. An edge portion of the roof panel is joined to one of the first and second upper rails.

A cargo transport rear frame includes a pair of posts, an upper cross member, and a rear bolster. The posts are spaced in a width direction, and extend in a height direction. The upper cross member extends along the width between the posts. The rear bolster extends between lower ends of the posts such that the rear bolster is spaced below the upper cross member. The posts, the upper cross member, and the rear bolster bound the rear cargo opening. The rear bolster has a first side facing in a forward direction, and the rear bolster has a second side facing in a rearward direction to be exposed to a rear side of the cargo transport rear frame. The rear bolster comprises a sheet metal stamping including a base surface and a relief embossed in the rearward direction from the base surface to form a loading dock engagement feature.

A cargo body panel includes an interior side, an exterior side, a primary recess, a secondary recess positioned within the primary recess, and a logistics track. The interior side defines an interior plane. The exterior side defines an exterior plane. The primary recess includes a primary recess interior side defining a primary recess interior plane and a primary recess exterior side defining a primary recess exterior plane. The primary recess interior plane is recessed from the interior plane in a direction toward the exterior plane. The secondary recess includes a secondary recess interior side defining a secondary recess interior plane and a secondary recess exterior side defining a secondary recess exterior plane. A distance between the secondary recess interior plane and the interior plane is greater than a distance between the primary recess interior plane and the interior plane. The secondary recess exterior plane is non-coplanar with the exterior plane.

A rear bolster for a cargo transport includes a sheet metal stamping having a forward side configured to face under the cargo transport, and a rear side configured to face rearward of the cargo transport. A vertically-extending base surface is formed by the rear side. A left taillight mount is provided adjacent a left widthwise end of the sheet metal stamping. A right taillight mount is provided adjacent a right widthwise end of the sheet metal stamping. A relief is embossed rearwardly from the base surface to form a loading dock engagement feature. The relief includes a first portion extending over and/or under the left taillight mount, a second portion extending over and/or under the right taillight mount, and a third portion continuous with the first and second portions and extending between the left and right taillight mounts.

A cargo vehicle configured to support cargo includes a frame assembly with at least one rail member defining a portion of an outer perimeter of the trailer. The cargo vehicle also includes a composite member adjacent to the frame assembly and a mounting member removably coupled to the at least one rail member and permanently coupled to the composite member.