A vehicle rear structure is applied to a vehicle, in which at least one of a roof and a rear window is capable of being accommodated in a vehicle body. The structure includes a deflection plate standing upright between a pair of seats on the rear side of the seats, and a light source provided on the lower front side of the deflection plate. When it is assumed that an imaginary straight line connecting between the light source and a reflection surface of the deflection plate is a first imaginary line, an imaginary straight line connecting between a middle portion of a rear view mirror and the reflection surface of the deflection plate is a second imaginary line, and, an imaginary straight line orthogonal to the reflection surface of the deflection plate is a reference imaginary line, the reflection surface of the deflection plate is inclined at a predetermined angle in such a manner that the angle defined by the reference imaginary line and the first imaginary line, and the angle defined by the reference imaginary line and the second imaginary line are different from each other in a side view.

A soft top cover assembly including a pivotal portion adapted for attaching at a roof top opening of a vehicle to selectively close off the roof top opening and open up the roof top opening for an open-air experience. The assembly has a cover attached to a first bow member of the pivotal portion and a rear header. Selectively rotating the pivotal portion covers and uncovers the roof top opening. The assembly has at least one pair of shutface appliques adjacent to the sides of the roof top opening. At least one pair of rear side belt mounts incorporating a belt rail and adapted to connect to the vehicle and operable to attach LH/RH rear side windows.

A vehicle includes a vehicle body including a truck bed at least partially defining a cargo area, a vehicle interior with passenger seating, and a multi-component hard top assembly configured to selectively and removably couple to the vehicle body to provide an enclosed configuration at least partially enclosing the vehicle interior. The multi-component hard top assembly includes a rear window assembly configured to selectively and removably couple to the vehicle body.

A roofing system for a Jeep type multiple row seating Jeep type SUV having a parallel separated longitudinal support beam structure extending roll cage with rear ends of the longitudinal support beams inclined to a belt line of the vehicle, the system including a rear rigid portion extending transverse of the vehicle, a cloth portion forward of the rigid portion covering at least a front seating row of the vehicle being openable.

A modular, multi-component hard top assembly for a vehicle having an interior with front passenger seating, rear passenger seating, and a rear cargo area is provided. In one example implementation, the hard top assembly includes a base frame configured to removably couple to a body of the vehicle, and a plurality of removable roof panels selectively coupleable to the base frame to create a substantially contiguous roof over the vehicle interior. Each removable roof panel of the plurality of removable roof panels is separately removable from the base frame to provide an open air configuration at that specific location of the hard top assembly while enabling a user to detach, remove, and transport a smaller portion of the hard top assembly without assistance or specialized equipment.

A vehicle includes a vehicle body with a truck bed at least partially defining a cargo area, a tonneau cover at least partially enclosing the cargo area, a vehicle interior with passenger seating, and a modular, multi-component hard top assembly. The hard top assembly is configured to selectively and removably couple interchangeably between (i) the vehicle body to provide an enclosed configuration at least partially enclosing the vehicle interior and (ii) the tonneau cover. The multi-component hard top assembly is detachable from the vehicle body to provide an open air configuration for the vehicle interior.

There are provided a pillar attached to a vehicle-body side separately from a roof, a pillar-side weather strip provided at the pillar, a vehicle-body-side weather strip provided at a vehicle-body side of a lower portion of the pillar, and an engagement portion provided at a lower end portion of the pillar-side weather strip, the engagement portion being configured to engage from an inward side, in a vehicle width direction, of the vehicle-body-side weather strip. The vehicle-body-side weather strip comprises a guide portion which guides the engagement portion of the pillar-side weather strip inward and downward, an engaged portion positioned at a lower portion of the guide portion, and a wall portion which contacts a hanging piece provided at the lower end portion of the pillar-side weather strip from an outward side in the vehicle width direction.

A deck cover is openably provided at a vehicle-body rear portion positioned in back of a cabin. A top portion of a rear wheelhouse is provided at the vehicle-body rear portion. This top portion is configured to be displaced upward, relative to a vehicle-body rear end portion, such as a rear bumper or a rear end panel, by vehicle-body deformation caused by a vehicle rear collision. The deck cover is supported at a position of the vehicle-body rear portion which is located vertically above or in front of the top portion of the rear wheelhouse such that the deck cover is elevated in accordance with upward displacement of the top portion when the vehicle-body rear portion receives a rear-collision load.

There are provided a front roof, a rear roof, a glass unit including a rear-window glass, a rear roof support link which openably supports the rear roof at a vehicle body, a front-roof support link mechanism which openably supports the front roof, the front-roof support link mechanism being connected to the rear roof support link such that closed states of both the front roof and the rear roof are achieved by means of the rear roof support link and the front-roof support link mechanism, and a glass-unit support link mechanism which is connected to the rear roof support link and configured to support the glass unit in a closed position.

A detachable hinge assembly configured to rotatably couple a window assembly to a vehicle body includes a support hinge member configured to couple to the vehicle body and including a hinge pin, and a window hinge member having a main body configured to couple to the window assembly, and one or more knuckles configured to removably receive the hinge pin. A cover is rotatably coupled to the window hinge member and includes a pin retaining arm. The cover is configured to move between a closed position where the pin retaining arm is positioned to retain the hinge pin within the one or more knuckles, and an open position where the pin retaining arm is positioned to allow the hinge pin to be removed from the one or more knuckles.