A kinetic structural component may have a flexible structure having at least one degree of freedom. The flexible structure can be moved between a compressed position and an expanded position or vice versa. The flexible structure may have at least one substructure which is configured, when said flexible structure is in the expanded position, to expand to form a curve or an arc and/or linearly.

A seat device for a vehicle includes a seat cushion, a slow deformation portion, and a rearward-tilt member. An occupant in the vehicle is to be seated on the seat cushion. The slow deformation portion is disposed in at least a portion of the seat cushion and is configured in such a manner that deformation of the deformation portion proceeds as a result of a load to be applied continuously to the slow deformation portion. The rearward-tilt member is disposed in a load direction in an inner portion of the slow deformation portion. When the slow deformation portion is deformed by the load, the rearward-tilt member is tilted rearward from its position before the load is applied.

A seat device for a vehicle includes a seat cushion, a slow deformation portion, and tilted standing members. An occupant in the vehicle is to be seated on the seat cushion. The deformation portion is disposed in at least a portion of the seat cushion and configured in such a manner that the deformation portion is deformed as a result of a load to be applied continuously to the deformation portion. The standing members stand in a load direction in an inner portion of the deformation portion and configured to be tilted as a result of the deformation of the deformation portion. When the outer and inner portions of the deformation portion are deformed by the load, the standing members in the outer and inner portions and the standing members in the inner portion are tilted respectively forward and rearward, from their respective positions before the load is applied.

A seat cushion for a seat in a high performance off-road racing vehicle. The seat cushion includes two foam layers, namely, a top thin foam layer and a bottom thick energy absorbing foam layer that are secured together, where the combination of the layers are capable of absorbing high energy Z-direction forces. In one non-limiting embodiment, the top layer is a methylenediphenyl isocyanate (MDI) polyurethane foam and is 12 mm thick, and the bottom layer is an open-cell energy absorbing urethane foam and is 38 mm thick.

A vehicle seat including: a seat body configured to seat an occupant; a pressing mechanism that is provided at the seat body and is switchable between a pressing state, in which the pressing mechanism presses against the pelvis of a seated occupant, and a non-pressing state, in which the pressing mechanism does not press against the pelvis of a seated occupant; and a control section configured to control the pressing mechanism, in a state in which an occupant is sitting on the seat body, so as to alternate repeatedly between the pressing state and the non-pressing state.

A seating system for a vehicle and a method for producing a seating system include a seat part having a cushion and a support material disposed on a surface of the cushion. An elongated member is attached to one side of the support material to create a channel in the opposite side, and a trim material is positioned over the support material to create a concavity in the trim material along the channel.

Variable stiffness apparatuses using an interconnected dual layer fluid-filled cell array. One example of the present apparatuses comprises: a substrate having a first side and a second side; and a plurality of structures coupled to the substrate, where each structure comprises: a flexible first portion having a first end, a second end, and a sidewall extending between the first end and the second end, the first portion defining a first chamber; and a second portion having a first end, a second end, and a sidewall extending between the first end and the second end, the second portion defining a second chamber in fluid communication with the first chamber; where each of the plurality of structures is coupled to the substrate such that the first portion is disposed on the first side of the substrate, and the second chamber is disposed on the first side or the second side of the substrate.

A vehicle seat may have a seat part and a backrest. The backrest may have a foam component with a cavity for receiving at least part of an airbag device. The foam component may be lined at least to some extent with a reinforcing layer arrangement in the region of the cavity.

A seat adjuster may include a support member and a fluid bladder. The support member may have a first end and a second end. The first end and the second end may be connectable to a seat frame such that the support member is disposed at least partially below a suspension portion of said seat frame. The fluid bladder may be disposed at least partially between the support member and said suspension portion. The fluid bladder may be configured to support said suspension portion. A change or adjustment of a volume of the fluid bladder may change or adjust the support provided to said suspension portion.

In at least one embodiment, the present disclosure provides a vehicle seat assembly comprising a cushion having an “A” surface and a “B” surface, a central portion, and two bolster areas, with each bolster area being adjacent the central portion, with the cushion having a plurality of intrusions extending from the “A” surface towards the “B” surface to form a hardness gradient between at least one of the bolster areas and the central portion of between 5% to 25%, the plurality of intrusions comprising a plurality of pairs of patterns, each pair of patterns comprising a first pattern spaced apart and opposingly and inversely facing a second pattern.