A light emitting display device, which is applied to a vehicle provided with an airbag device having an airbag accommodated in a folded state and an airbag cover with a shape of covering a vehicle interior of the airbag, the light emitting display device includes: a light emitting display part provided to the airbag cover, the light emitting display part configured to emit light using supplied power; a power feeding device including a power reception coil and a power transmission coil, the power feeding device configured to supply power to the light emitting display part in a non-contact manner, wherein: the power reception coil is provided to the airbag cover in a state of being integrated with the light emitting display part; and the power transmission coil is arranged at a position out of a range, in which the airbag is deployed, when the airbag device is operated.

A rear seat side airbag device includes: a case that is provided at a vehicle rear side of a cabin-side wall portion, a plate thickness direction of which is a substantially vehicle longitudinal direction, of a seat side garnish disposed between a vehicle side portion and a seatback of a rear seat, that has an opening portion that opens toward the cabin-side wall portion, and that houses an airbag module main body; an airbag door that covers the opening portion, and that is surrounded by a tear portion and a hinge portion that are formed at regions corresponding to the opening portion; and a spacer that is provided at the airbag door and projects out into the case.

An air bag chute assembly mounts a passenger air bag module to an automotive instrument panel. An outer flange collar of the assembly attaches to the instrument panel and defines a windshield-facing side. A tubular chute extends interiorly from the collar to a lower end that attaches to the air bag module. A door flap is disposed in an upper end of the chute. An S-shaped hinge has a first edge attached to the door flap. An apron extends from the collar laterally into the deployment path from the windshield-facing side. A second edge of the hinge attaches to the apron so that a sweep zone of the door flap is shifted by a distance corresponding to a reduction in a width of the deployment path at the upper end caused by the apron, reducing interference between the flap and a windshield during air bag deployment.

Seat assemblies for motor vehicles and methods for fabricating such seat assemblies are provided. In one example, a seat assembly for a motor vehicle includes a seat frame and a seat back panel that is coupled to the seat frame. The seat back panel has a frangible tear seam that defines an integrated airbag door. An airbag is disposed between the seat frame and the seat back panel adjacent to the integrated airbag door. The airbag inflates during deployment. The integrated airbag door is configured to open during deployment to allow the airbag to inflate outside of the seat back panel.

A hinge device for an airbag door of a vehicle is provided. In particular embodiments, a fabric sheet is made by weaving warp yarns and weft yarns with a plurality of grid spaces and integrally formed on an inner surface of an airbag door. Grid spaces formed in opposite ends of the fabric sheet that are rotated when the airbag door is opened by deployment of an airbag are arranged in a state of being compressed so as to be extensible.

A vehicle interior panel with an airbag net having a strategically configured reinforcement fold. The vehicle interior panel includes an airbag lid configured to cover a deployable airbag and an adjacent panel portion situated adjacent to the airbag lid. The panel includes an airbag net having a hinge that forms between a first net segment on a first side of the hinge and a second net segment on a second, opposite side of the hinge. The first net segment is coupled to the adjacent panel portion and the second net segment is coupled to the airbag lid. The airbag net includes a reinforcement fold, the reinforcement fold extending through the hinge from the first net segment to the second net segment.

An airbag assembly, which is capable of facilitating a deployment of a deployment part when a passenger seat airbag is deployed, and preventing a damage of a hinge part includes: a deployment part turned and opened when an airbag disposed inside a crash pad is deployed; a hinge part fixing the deployment part to the crash pad; and a plurality of hinge protection structures formed at one end of the hinge part in order to set a deployment direction of the airbag. Each of the plurality of hinge protection structures may include a load pass hole formed at the opposite surface of a surface facing the airbag, and distributes stress applied to the hinge part when the airbag is deployed.

A crash pad for a vehicle having an integrated airbag door and housing may include a main body including a crash pad core, and an airbag housing integrally formed at a center of the crash pad core defining a space for accommodation of an airbag cushion therein, and an airbag door integrally injection-molded with the main body selectively to open and close the space in the airbag housing, the molded airbag door disposed upright in a direction in which the molded airbag door may be discharged from a mold to open the airbag housing.

An air bag chute assembly mounts a passenger air bag module to an automotive instrument panel. An outer flange collar of the assembly attaches to the instrument panel and defines a windshield-facing side. A tubular chute extends interiorly from the collar to a lower end that attaches to the air bag module. A door flap is disposed in an upper end of the chute. An S-shaped hinge has a first edge attached to the door flap. An apron extends from the collar laterally into the deployment path from the windshield-facing side. A second edge of the hinge attaches to the apron so that a sweep zone of the door flap is shifted by a distance corresponding to a reduction in a width of the deployment path at the upper end caused by the apron, reducing interference between the flap and a windshield during air bag deployment.

An airbag chute-integrated crash pad assembly includes: a main core that includes a door portion expanding when an airbag expands, and a cover portion mounted on a dash board. In particular, the main core is formed with a reinforcement portion extending downward from a lower surface of the cover portion, and the door portion and the cover portion are separated by a hinge groove that is formed in a lower surface of the main core and forms an expansion line. The reinforcement portion is combined with an airbag accommodation body that accommodates a passenger airbag (PAB). Thus, process optimization can be realized by omitting a process of machining a score and fusing a PAB chute, and also a problem of damage to the PAB chute can be solved.