An impact absorbing member is disposed between a roof panel and a top ceiling disposed below the roof panel. The impact absorbing member includes a base plate portion and a hollow, cone-shaped portion extending upward from the base plate portion. The cone-shaped portion has a fragile portion that facilitates vertical crush and deformation.

A vehicle cushioning member includes first and second bending portions including first and second convex-bending portions, and first and second concave-bending portions. The first and second convex-bending portions and the first and second concave-bending portions are formed perimetrically while switched from each other between the adjacent side walls. When a length from a top surface of the top plate to a flange portion is 100%, a length from the top surface to the first bending portion is 24% or more and 47% or less, a length from the first bending portion to the second bending portion is 34% or more and 49% or less, and a length from the second bending portion to a top-plate-side surface of the flange portion is 13% or more and 33% or less, concerning a height direction along the axis of a substantially polygonal tube.

An active bolster for a vehicle is provided, wherein the bolster comprises an expansible hollow interior that is inflatable and is self-supporting in both an inflated and in an uninflated position. The bolster has an inflator module for inflating the expansible hollow interior. The bolster has an inner wall for projecting inwardly into the vehicle and away from the side of the vehicle on inflation of the expansible hollow interior. The bolster may have a relatively non-expansible component located between a first expansible chamber and a second expansible chamber. The bolster may comprise an outer wall having an attachment portion for attaching the outer wall to a portion of the side of the vehicle.

A high-performance sports car having: a frame that supports a pair of front wheels and a pair of rear wheels; a passenger compartment that is formed on the inside of the frame and is arranged between the front wheels and the rear wheels; at least one door, which is hinged to the frame to allow access to the passenger compartment; at least one seat, which is arranged inside the passenger compartment to the side of the door; and a rigid protection panel which is integral with the door and, when the door is closed, is arranged alongside the seat in line with the head of the occupant of the seat.

A vehicle door includes an interior panel including a housing extending from a first side of the interior panel and defining a cavity. An energy absorption structure is positioned within the cavity and includes a plurality of members arranged in a plurality of rows. Each of the plurality of members includes at least one arcuate support coupled with a rib and having first and second ends. The at least one arcuate support of each member is coupled to the at least one arcuate support of a neighboring member at one of the first and second ends.

A vehicle interior component configured for response in event of a side impact may comprise an armrest assembly for a door panel. The armrest assembly may comprise a base section and an armrest section and a region configured for response to side impact at the door panel. The region may comprise a movable/deformable structure. Response of the armrest assembly may comprise deformation to partially absorb force and/or movement of the armrest section relative to the base section to partially cover the base section. The armrest assembly may comprise a carrier and/or mechanism to attach the armrest section to the door panel. The carrier/mechanism may be configured to guide/direct movement of the armrest section and/or to partially absorb the side impact force. The mechanism may comprise a set of pins movable within a set of slots to provide for movement of the armrest section.

An embodiment vehicle panel assembly includes an inner panel configured to wrap a roof and opposite pillars of a vehicle body, the inner panel including a second inner assembly portion provided at pillar-side opposite side parts and a guide portion provided at an upper side of the second inner assembly portion, and an outer panel configured to be loaded from above the inner panel and coupled to the inner panel to wrap an outside of the inner panel, the outer panel including a second outer assembly portion provided at a side part, the second outer assembly portion configured to be guided downwards by the guide portion when loaded from above and facing the second inner assembly portion after loading, wherein the second outer assembly portion is fastened to the second inner assembly portion.

A vehicle cushioning member includes first and second bending portions including first and second convex-bending portions, and first and second concave-bending portions. The first and second convex-bending portions and the first and second concave-bending portions are formed perimetrically while switched from each other between the adjacent side walls. When a length from a top surface of the top plate to a flange portion is 100%, a length from the top surface to the first bending portion is 24% or more and 47% or less, a length from the first bending portion to the second bending portion is 34% or more and 49% or less, and a length from the second bending portion to a top-plate-side surface of the flange portion is 13% or more and 33% or less, concerning a height direction along the axis of a substantially polygonal tube.

A vehicle door trim panel has a vehicle interior-facing A-side and a vehicle door structure-facing B-side. The vehicle door trim panel includes a pocket portion that includes a side portion and a wall portion that surrounds and extends outward from the pocket portion. The wall portion has a first portion. The B-side of the first portion of the wall portion is concave and faces generally vehicle-downward. A thickness of the first portion of the wall portion is less than a thickness of the pocket portion adjacent to the first portion of the wall portion.

The present invention provides a side collision energy absorbing structure that gives a good performance while avoiding breakage of a door trim. A side collision energy absorbing structure 2 includes an energy absorber 10 made of molded resin and formed separately from a door trim 1. The energy absorber 10 includes a deformable portion 110 protruded outward in a vehicle width direction and a plurality of mounting flange portions 121, 122, 123 formed in an end portion of the deformable portion 110 on the door trim side. Boss portions 6, 7, 8 of the door trim 1 are respectively inserted and fixed in holes 121a, 122a, 125 of the mounting flange portions 121, 122, 123. The hole 125 of the mounting flange portion 123 is an elongated hole. The elongated hole 125 extends from where the boss portion 8 is inserted toward the deformable portion 110.